individual course description...kadıoğlu e. kamali m.-genel matematik,robert a.adams-calculus,...
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INDIVIDUAL COURSE DESCRIPTION
Course Unit Title ABSTRACT MATHEMATİCS I
Course Unit Code MAT 103
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 5
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 1
Semester when the course unit is
delivered 1
Name of Lecturer
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Give the language of mathematics and basic concepts.
Learning Outcomes
1.Understanding the logic of preposition
2.Comprehension the methods of proof
3.Recognise the sets
4.Investigation the functions
5.Learning the relation concept
Course Contents Prepositions ,quantitatives , prof methods ,sets , relations ,equation and order relation ,functions
, process,introduction to algebraic structures
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Theoretical Courses Teaching & Learning Methods
1 Logic of propositions Telling and explenation
2 Quantitatives Telling and explenation
3 Proof methods Telling and explenation
4 Sets Telling and explenation
5 Midterm exam
6 Relation Telling and explenation
7 Identical relation Telling-explenation and question-answer
8 Equation and order relation Telling and explenation
9 Functions Telling and explenation
10 Midterm exam
11 Sets algebra Telling and explenation
12 Process Telling and explenation
13 Introduction to algebraic structures Telling and explenation
14 Difference of two sets Telling-explenation and question-answer
15 Final exam
Recommended or
Required Reading
1.Soyut Matematik, S.Akkaş, H.H.Hacısalihoğlu Z.Özel, A.Sabuncuoğlu, Gazi Üniversitesi Yayınları,
1984
2.Bridge to Abstract Mathematic, Ronald P. Morash, New York, Random Hauuse, Birkhauser, 1987
3.Discrete and Combinatorial Mathematics, Ralph P.Grimaldi, Addison-Wesley,New York 2000
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 10
Project
Presentation/ Preparing
Seminar
Mid-terms 2 90
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 2 30
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 4 60
Assignments 1 12 12
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 8 16
Final examination 1 10 10
Total Work Load 34 36 128
Total Work Load / 30 (h) - - 4.26
ECTS Credit of the Course - - 5
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 5 5 4 4 5 4 4
LO2 5 5 4 4 5 4 4
LO3 5 5 4 4 5 4 4
LO4 5 5 4 4 5 4 4
LO5 5 5 4 4 5 4 4
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title ANALYSİS I
Course Unit Code MAT 101
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 5
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 1
Semester when the course unit is
delivered 1
Name of Lecturer
Mode of Delivery FACE TO FACE
Language of Instruction TURKİSH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course To teach the concept of function and to detailed examine the concept of limit,continuity and
derivative for the single variable function
Learning Outcomes
1.Recognition the number systems
2.To comprehension properties of absolute value and full value
3.To solve the inequality
4.To explain the concept of function
5.To identify the specific functions
6.To comprehension the limit and contunuity
7.To answer the question “what is the derivative
8.To solve the undefined cases by aid of derivative
Course Contents
Numbers,absolute value,full value,inequalities.The concept of functions,some specific
functions.Some practical drawings.Trigonometric functions.İnverse trigonometric
functions.Exponential and logarithmic functions.Hyperbolic functions.The concept of
derivative.General rules of differential.Derivative of trigonometric and inverse trigonometric
function.Drawings of curve.
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Theoretical Courses Teaching & Learning Methods
1
Numbers(Naturel
numbers,İntegers,Rational and irrational
numbers,Real and Complex numbers)
Telling and explanation
2 Absolute value and full value Telling and explanation
3 İnequalities and the concept of functions Telling and explanation
4 Some specific functions Telling-explanation and Question-Answer
5 Midterm exam
6 Some easy graph drawings Telling and explanation
7 Trigonometric and inverse trigonometric
functions Telling and explanation
8 Exponential,logarithmic and hyperbolic
functions Telling and explanation
9 The concept of derivative and general rules
of differential Telling and explanation
10 Middterm exam
11
The geometric interpretation of derivative
and the derivative of exponential and
logarithmic functions
Telling-explanation and Question-Answer
12 Derivatives of trigonometric and inverse
trigonometric functions Telling and explanation
13 Drawings of curve Telling and explanation
14 Undefined cases Telling and explanation
15 Final exam
Recommended or
Required Reading
Kadıoğlu E. Kamali M.-Genel Matematik,Robert A.Adams-Calculus, Balcı M.- Matematik Analiz
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Project -
Presentation/ Preparing
Seminar -
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 5 75
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 8 120
Assignments 5 11 55
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 20 40
Final examination 1 20 20
Total Work Load 38 64 310
Total Work Load / 30 (h) - - 10.33
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 5 5 5 5 4 3
LO2 5 5 5 5 4 3
LO3 4 4 4 4 4 3
LO4 5 5 5 4 4 3
LO5 4 4 4 4 4 3
LO6 4 5 5 4 4 3
LO7 5 5 5 4 4 3
LO8 5 5 5 4 4 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title ANALYTICAL GEOMETRY I
Course Unit Code MAT 203
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 5
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 2
Semester when the course unit is
delivered 3
Name of Lecturer RESEARCH ASSİSTANTS OF MATHEMATİC DEPARTMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKİSH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course To give the fundamental concept of Analytical geometry and to provide the using of this
cource´s subjects first of all in geometry and the other cources.
Learning Outcomes
1)He/She is able to interpret passing from synthetic geometry to analytical geometry
2)He/She is able to define different coordinate systems
3)He/She is able to use the detailed knowledge related to vectors
4)He/She is able to calculate passing formulations from one to other coordinate systems which
are Euclidean, cylindrical , spherical and toroidal coordinate systems,
5)He/She is able to analyse the translations and rotations on plane geometry
6)He/She is able to do the applications of vector algebra on line and plane on space
7)He/She is able to calculate reflections with respect to a plane and a line
8)He/She is able to use conics
Course Contents
Vectors, vector spaces,the inner products of vectors, inner product spaces, vectorial product and
the scalar triple product, coordinate frames and coordinate systems, affine coordinates,
cylindrical and spherical coordinate systems, translations and rotations on the plane, the
applications of vector algebra, the line and plane on space, conics
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Theoretical Courses Teaching & Learning Methods
1 Vectors, affine coordinate systems on the
plane, vector spaces [1] Pages 1-16
2 Inner product and inner product spaces, the
Hess form of the line [1] Pages 22-32
3 Inner product space, orthonormal vector
systems [1] Pages 33-56
4 Vectorial product, the scalar triple product,
Lagrange identity [1] Pages 57-65
5 First exam
6 Affine space, affine frame, changing of the
affine coordinate systems [1] Pages 69-81
7
Euclidean space, Euclidean frame,
cylindrical , spherical and toroidal
coordinate systems
[1] Pages 81-98
8 Translations and rotations on the plane
geometry [1] Pages 98-108
9 The applications of vector algebra, line and
plane on space [1] Pages 132-139
10 Second exam
11 Line-plane relations, angle bisector planes,
the condition of two and three planes [1] Pages 139-146
12 The pencil of lines, the common point of
line and plane, intersection of two lines [1] Pages 146-151
13 Reflection with respect to a plane and a
line [1] Pages 151-161
14 Conics, sections of a conic and a line [1] Pages 161-165
15 Final exam
16
Recommended or
Required Reading
[1]Prof. Dr. H. Hilmi HACISALİHOĞLU,"2 ve 3 Boyutlu uzaylarda Analitik Geometri", altıncı baskı,
Ankara, 2003.
[2]Prof. Dr. Rüstem Kaya," Analitik Geometri", beşinci baskı, Eskişehir, 2003.
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 1 15
Assignments 1 5 5
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 7,5 15
Final examination 1 15 15
Total Work Load - - 95
Total Work Load / 30 (h) - - 3,16
ECTS Credit of the Course - - 5
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 3
LO2 3 3
LO3 3 3
LO4 3 3
LO5 3 3
LO6 3 3
LO7 3 3
LO8 3 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title INTRODUCTİON TO COMPUTER
Course Unit Code MAT 105
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 2
Practice (hour/week) 2
Laboratory (hour/week) -
Year of Study 1
Semester when the course unit is
delivered 1
Name of Lecturer
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Teaching use of computer at a university level and teaching IT operation and programmings
will become necessary at profession lives with the high level applications .
Learning Outcomes
1.Understanding the basic concepts
2.Comprehension the units of computer
3.Learning the software and hardware
4.Comprehension the properties of processors
5.Using the Word with the high level
Course Contents
Information technology,Basic concepts
Organization of computer,Computers,Units of entry-exit
Softwsre of computer,Concept of software,Computer programming
Processor systems,Types of processor,Basic fuctions of processor systems,Use of processor
system
Word processors-General properties and using the Word processors
Process tables-Properties and using the Process tables
Word-Properties and using the Word
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Theoretical Courses Teaching & Learning Methods
1 Basic concepts Telling-explanation and application
2 Organization of computer Telling-explanation and application
3 Units of computer Telling-explanation and application
4 Software and hardware Telling-explanation and application
5 Midterm exam
6 Processor systems Telling-explanation and application
7 Using the processor systems Telling-explanation and application
8 Word processors Telling-explanation and application
9 Process tables and using the Process tables Telling-explanation and application
10 Midterm exam
11 Introduction the Word Telling-explanation and application
12 Basic information of Word Telling-explanation and application
13 Document preparation in the Word Telling-explanation and application
14 Advanced Word informations Telling-explanation and application
15 Final exam
Recommended or Lecture notes
Required Reading
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Project
Presentation/ Preparing
Seminar
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 4 60
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 4 60
Assignments 2 10 20
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 12 24
Final examination 1 16 16
Total Work Load 35 46 180
Total Work Load / 30 (h) - - 6
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 5 4 4 5 4 3 4 4
LO2 5 4 4 5 4 3 4 4
LO3 5 4 4 5 4 3 4 4
LO4 5 4 4 5 4 3 4 4
LO5 5 4 4 5 4 3 4 4
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title PHYSISCS I
Course Unit Code F 101
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 5
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 1
Semester when the course unit is
delivered 1
Name of Lecturer
Mode of Delivery FACE TO FACE
Language of Instruction TURKİSH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course To have students gained the background for static and dynamics.
Learning Outcomes
1) Explains measurement and the fundamental unit systems
2) Analyzes the static, kinematic and dynamic processes.
3) Applies these processes to mathematics in general.
4) Makes solutions to the problems related to static, kinematic and dynamic processes.
5) Proposes new models for the static, kinematic and dynamic systems
6) Aplies the fundamental laws of physics to mechanics systems
Course Contents
Physics and measurement, Motion in one dimention, Vectors, Motion in two dimension, Rules
of Motion, Circular Motion, Work and Kinetic Energy, Potantiel Energy and Conservation of
Mechanical Energy, Linear Momentum and Collisions, Rotation of a Rigid Body around an
axis. Rolling Objects and Angular Momentum, Static Equilibrium and a Rigid Body, Gravity
Oscillation and Waves.
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Theoretical Courses Teaching & Learning Methods
1 Unit Systems [1] Pages 1-16
2 Vectors [1] Pages 22-32
3 One Dimensional Motion [1] Pages 33-56
4 Two Dimensional Motion [1] Pages 57-65
5 First exam
6 Newton?s Laws of Motion [1] Pages 69-81
7 Applications of Newton?s Laws of Motion [1] Pages 81-98
8 The Newton?s Law of Universal
Gravitation [1] Pages 98-108
9 Work and Energy [1] Pages 132-139
10 Second exam
11 Conversation of Energy [1] Pages 139-146
12 Momentum and Motion of Systems [1] Pages 146-151
13 Statical Equilibrium of Rigid Bodies [1] Pages 151-161
14 Angular Momentum and Rotation [1] Pages 161-165
15 Final exam
16
Recommended or
Required Reading
[1] Y.Güney, İ.Okur, Fizik-I (Mekanik), Değişim Yayınları, 2009, Sakarya [2]Prof. Dr. Rüstem Kaya,"
Analitik Geometri", beşinci baskı, Eskişehir, 2003.
[2] Keller, F. J., ?Fizik 1?, çev. Ed. Akyüz R.Ö. ve arkadaşları, Literatür Yayınevi, 2002, İstanbul
[3] Serway, ?Fen ve Mühendislik İçin Fizik? Palme Yayıncıcılık, Çev.Edit. Kemal Çolakoğlu, 2002,
Ankara
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 1 15
Assignments 1 15 15
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 120
Total Work Load / 30 (h) - - 4
ECTS Credit of the Course - - 5
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 5 3
LO2 3 4 3
LO3 3 3 3
LO4 3 3
LO5 3 3
LO6 3 3
LO7 3 3
LO8 3 4 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title TURKISH LANGUAGE AND LİTERATE I
Course Unit Code TD 101
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 3
Theoretical (hour/week) 2
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 1
Semester when the course unit is
delivered 1
Name of Lecturer
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Express the structural properties and wealth of Turkish language.
Learning Outcomes
1.Perception the concept of language
2.Comprehension the structure of Turkish
3.Detected learning Turkish grammar
4.Understanding the word and sentence structure
5. Speaking firely and effectine
Course Contents
Language, languages and Turkish language
Grammar,word and sentence
Types of word
Types and elements of expression,Main idea and auxiliary ideas
Subject and subject types,explanation ,discussion,description,narration
Diction
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Theoretical Courses Teaching & Learning Methods
1 Language Telling and explenation
2 Languages and Turkish language Telling and explenation
3 Grammar Telling and explenation
4 Word structure Telling and explenation
5 Midterm exam
6 Sentence structure Telling and explenation
7 Word types Telling and explenation
8 Expression elements Telling and explenation
9 Main idea and auxiliary ideas Telling and explenation
10 Midterm exam
11 Subject and subject types Telling and explenation
12 Explenation and discussion Telling and explenation
13 Description and narration Telling and explenation
14 Diction Telling and explenation
15 Final exam
Recommended or
Required Reading
Lecture notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment
Project
Presentation/ Preparing
Seminar
Mid-terms 1 100
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 2 30
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 2 30
Assignments
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 4 8
Final examination 1 5 5
Total Work Load 33 17 73
Total Work Load / 30 (h) - - 2,43
ECTS Credit of the Course - - 3
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 4 5 5
LO2 4 5 5
LO3 4 5 5
LO4 4 5 5
LO5 4 5 5
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title ABSTRACT MATHEMATİCS II
Course Unit Code MAT 104
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 5
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 1
Semester when the course unit is
delivered 2
Name of Lecturer
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Make up for number systems by the sets theory
Learning Outcomes
1.Understanding the equivalent and equal set concepts
2.Comprehension the natural numbers
3.Apply the method of induction
4. Comprehension the integers
5. Comprehension the rational , real and complex numbers
Course Contents
Equivalent sets
Definition of the natural numbers
Operation and ordering in the natural numbers
Induction method
Integer sets
Operation and ordering in the integers
Rational and real numbers
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Theoretical Courses Teaching & Learning Methods
1 Mathematical structures Telling and explanation
2 Group,ring and field Telling and explanation
3 Vector spaces ,Equivalent sets Telling and explanation
4 Creation of the natural numbers Telling and explanation
5 Midterm exam
6 Operation and ordering in the natural
numbers Telling-explanation and Question-answer
7 Induction method Telling and explanation
8 Integer sets Telling and explanation
9 Operation and ordering in the integers Telling-explanation and Question-answer
10 Midterm exam
11 Rational numbers Telling and explanation
12 Real numbers Telling and explanation
13 Complex numbers Telling and explanation
14 Sum and product symbol Telling and explanation
15 Final exam
Recommended or
Required Reading
Lecture notes,
Soyut Matematik, S.Akkaş, H.H.Hacısalihoğlu Z.Özel, A.Sabuncuoğlu, Gazi Üniversitesi Yayınları,
1984
Bridge to Abstract Mathematic, Ronald P. Morash, New York, Random Hauuse, Birkhauser, 1987
Discrete and Combinatorial Mathematics, Ralph P.Grimaldi, Addison-Wesley,New York 2000
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 10
Project
Presentation/ Preparing
Seminar
Mid-terms 2 90
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 2 30
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 4 60
Assignments 1 12 12
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 8 16
Final examination 1 10 10
Total Work Load 34 36 128
Total Work Load / 30 (h) - - 4.26
ECTS Credit of the Course - - 5
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 5 5 4 4 5 4 4
LO2 5 5 4 4 5 4 4
LO3 5 5 4 4 5 4 4
LO4 5 5 4 4 5 4 4
LO5 5 5 4 4 5 4 4
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title ANALYSİS II
Course Unit Code MAT 102
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 5
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 1
Semester when the course unit is
delivered 2
Name of Lecturer
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Teaching the undefinite integral , definite integral , integral applications ,sequencess and series
fort he single variable functions
Learning Outcomes
1.Perception the differential concept
2.Comprehernsion the undefinite integral
3. Comprehernsion the definite integral
4.Making the field computation
5. Making the volum computation
6.Comprehension the sequences and series
Course Contents
Differential
Undefinite integral
Definite integral,The main theorem of the integral computation
Derivative of the integrals,The mean value theorem
Applications of the integrals(Field computation)
Computation the volume with the section method , Computation the volume with the disc
method , Computation the volume with the shell method
Generalized integrals (1. and 2. Type generalized integrals )
Sequences and series
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Theoretical Courses Teaching & Learning Methods
1 Differential Telling and explanation
2 Basic undefinite integrals Telling and explanation
3 The variable Exchange and partial
integration Telling and explanation
4 The integral of the rational functions Telling and explanation
5 Midterm exam
6 The integral of the trigonometric functions Telling and explanation
7 Definition of the definite integral Telling and explanation
8 Basic definite integrals Telling and explanation
9 Geometric interpretations Telling and explanation
10 Midterm exam
11 Field computation Telling and explanation
12 Volume computation Telling and explanation
13 Sequences Telling and explanation
14 Series Telling and explanation
15 Final exam
Recommended or
Required Reading
Ders notları,Genel Matematik-Ekrem Kadıoğlu,Calculus-Robert A.Adams
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 5 20
Project
Presentation/ Preparing
Seminar
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 5 75
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 7 105
Assignments 5 12 60
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 20 40
Final examination 1 20 20
Total Work Load 38 64 300
Total Work Load / 30 (h) - - 10
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 5 5 5 5 4 3
LO2 5 5 5 5 4 3
LO3 4 4 4 4 4 3
LO4 5 5 5 4 4 3
LO5 4 4 4 4 4 3
LO6 4 5 5 4 4 3
LO7 5 5 5 4 4 3
LO8 5 5 5 4 4 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title ANALYTICAL GEOMETRY II
Course Unit Code MAT 204
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 5
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 2
Semester when the course unit is
delivered 4
Name of Lecturer RESEARCH ASSİSTANTS OF MATHEMATİC DEPARTMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course To give the fundamental concept of Analytical geometry and to provide the using of this
cource´s subjects first of all in geometry and the other cources.
Learning Outcomes
1)He/She is able to distinguishe the plane and space analytic geometry
2) He/She is able to use detailed knowledge related to conics
3) He/She is able to classify the conics
4) He/She is able to restate curves of line, circle and ellipse etc. with coordinates of point
5) He/She is able to calculate tangents of parabola, ellipse and hyperbola and circle
6) He/She is able to interpret the curves in space, circular helix and helix on the cone
7) He/She is able to classify revolving curves, ellipsoid, hyperboloid and ruled surfaces
8) He/She is able to debate the quadratic forms and quadratic surfaces
Course Contents
General second order surfaces on the plane,parallel translating the axis, rotating the axis,
elements of conics,second order surfaces, curves and surfaces in three dimensional space,helix,
cycloid, epicycloid,hypocycloid ,cardioid, ellipsoid, hyperboloid, ruled surfaces.General second
order surfaces on the plane, parallel translating the axis, rotating the axis, elements of conics,
second order surfaces, curves and surfaces in three dimensional space, helix, cycloid,
epicycloid, hypocycloid, cardioid, ellipsoid, hyperboloid, ruled surfaces.
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Theoretical Courses Teaching & Learning Methods
1 Line coordinates, the equations with the
linear coordinates. [1] Pages 184-191
2 Point-Line duality, linear dependence,
duality in space. [1] Pages 191-202
3 Parabola, ellipse, hyperbola, circle, tangent
at conics [1] Pages 203-216
4 Tangent at ellipse and hyperbola, linear
equations of ellipse and hyperbola. [1] Pages 216-222
5 First exam
6
Conics with the same foci, confocal
parabolas, cycloid, vertex and diagonal at
conics
[1] Pages 222-230
7 General quadratic equations, pencil of
conics, center, diagonal, asymtot [1] Pages 231-265
8 Elements of conics, focus and directrix at
conics. [1] Pages 267-288
9 Curves in space,circular helix, helix on the
cone [1] Pages 289-303
10 Second exam
11 Cycloid curves, cardioid [1] Pages 305-315
12 Folium of Descartes, Cassini oval,
Lemniscate, sphere and cylinder surface [1] Pages 316-327
13 Cone, Rregression surface, torus [1] Pages 331-350
14 Quadratic forms and Quadratic surfaces [1] Pages 355-358
15 Final exam
16
Recommended or
Required Reading
[1] Prof. Dr. H. Hilmi Hacısalihoğlu, "2 ve 3 Boyutlu uzaylarda Analitik Geometri", Altıncı baskı,
Ankara, 2003.
[2] Prof. Dr. Rüstem Kaya, "Analitik Geometri", Beşinci baskı, Eskişehir, 2003.
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 1 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 1 15
Assignments 1 5 5
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 7,5 15
Final examination 1 15 15
Total Work Load - - 95
Total Work Load / 30 (h) - - 3,16
ECTS Credit of the Course - - 5
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 3
LO2 3 3
LO3 3 3
LO4 3 3
LO5 3 3
LO6 3 3
LO7 3 3
LO8 3 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title INTRODUCTION TO COMPUTER II
Course Unit Code MAT 106
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 2
Practice (hour/week) 2
Laboratory (hour/week) -
Year of Study 1
Semester when the course unit is
delivered 2
Name of Lecturer
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Teaching use of computer at a university level and teaching IT operation and programmings
will become necessary at profession lives with the high level applications
Learning Outcomes
1.Prepare the presantation with the Powerpoint
2.Make various applications with the Excel
3. Make various applications with the Access
4.Recognition the Internet
5.Using the Internet effectively
Course Contents Prepare Powerpoint presantation , Excel applications , Access applications,Internet
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Theoretical Courses Teaching & Learning Methods
1 What is the Powerpoint Telling-explanation and application
2 Recognition Powerpoint objects Telling-explanation and application
3 Recognition Powerpoint shortcuts Telling-explanation and application
4 Prepare starting Presantations With the
Powerpoint Telling-explanation and application
5 Midterm exam
6 Prepare effective presantation with the
Powerpoint Telling-explanation and application
7 What is the Excel Telling-explanation and application
8 Recognition Excel objects Telling-explanation and application
9 Prepare data with the Excel Telling-explanation and application
10 Midterm exam
11 Table generation paths with the Excel Telling-explanation and application
12 What is the Access Telling-explanation and application
13 Effective Access using Telling-explanation and application
14 Internet Telling-explanation and application
15 Final exam
Recommended or
Required Reading
Lecture notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Project
Presentation/ Preparing
Seminar
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 4 60
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 4 60
Assignments 2 10 20
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 12 24
Final examination 1 16 16
Total Work Load 35 46 180
Total Work Load / 30 (h) - - 6
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 5 4 4 5 4 3 4 4
LO2 5 4 4 5 4 3 4 4
LO3 5 4 4 5 4 3 4 4
LO4 5 4 4 5 4 3 4 4
LO5 5 4 4 5 4 3 4 4
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title PHYSICS II
Course Unit Code F 102
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 5
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 1
Semester when the course unit is
delivered 1
Name of Lecturer
Mode of Delivery FACE TO FACE
Language of Instruction TURKİSH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course To help students gain the fundamental knowledge of electricity and magnetism during their
education.
Learning Outcomes
1) Analyzes the electrical charge and being neutral
2) Analyzes the forces and electric fields produced by charged systems.
3) Determines the technological uses of the capacitors.
4) Makes analysis about the electrical current and conductivity..
5) Understands how magnetic forces and fields are produced.
6) Applies the electromagnetic induction, Faraday and Lenz law to electrical circuits.
7) Analyzes the alternating and direct current circuits.
Course Contents
Coulomb Force, Electric Field, Electric Flux, Gauss?s Law, Electrical Potential, Capacitors,
Current Formation and Resistor, Constant Current, Circuits of Direct Current, Kirchhoff?s
Laws, Magnetic Field, Biot-Savart?s Law, Induction, Faraday?s Law, Lenz?s Law, Inductance,
Energy in a Magnetic Field, Oscillations in an LC Circuit.
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Theoretical Courses Teaching & Learning Methods
1 Coulomb?s Law and Electric Forces [1] Pages 1-16
2 Coulomb?s Law and Electric Forces [1] Pages 22-32
3 Electrical Potential [1] Pages 33-56
4 Capacity and Capacitors, Properties of
Dielectrics [1] Pages 57-65
5 First exam
6 Current and Resistor [1] Pages 69-81
7 Direct Current Cicuits [1] Pages 81-98
8 Electromagnetic Force [1] Pages 98-108
9 Magnetic Field Sources [1] Pages 132-139
10 Second exam
11 Faraday?s Law [1] Pages 139-146
12 Self Inductance and ? Mutual Inductance [1] Pages 146-151
13 Alternating Current (RL and RC) Circuits [1] Pages 151-161
14 Alternating Current (RLC) Circuits [1] Pages 161-165
15 Final exam
16
Recommended or
Required Reading
[1] Fen ve Mühendislik için Fizik II (Elektrik ve Manyetizma), R.A.Serway; Çeviri Editörü: Kemal
Çolakoğlu, (5. baskıdan çeviri), Palme Yay., 2002
[2] Fizik II (Elektrik), F.J.Keller, W.E.Gettys, M.J.Skove, Çeviri Editörü: R.Ömür Akyüz, Literatür Yay.,
2006
[3] Temel Fizik II (Fishbane, Gasiorowicz ve Thornton, 2. baskıdan çeviri; Çeviri Editörü: Cengiz Yalçın;
Arkadaş Yay., 2003
[4] Fizik İlkeleri 2 F.J. Bueche, D.A. Jerde, Çeviri Editörü: Kemal Çolakoğlu;(6. baskıdan çeviri), Palme
Yay., 2000
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 1 15
Assignments 1 15 15
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 120
Total Work Load / 30 (h) - - 4
ECTS Credit of the Course - - 5
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 5 3
LO2 3 4 3
LO3 3 3 3
LO4 3 3
LO5 3 3
LO6 3 3
LO7 3 3
LO8 3 4 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title TURKISH LANGUAGE AND LİTERATE II
Course Unit Code TD 102
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 3
Theoretical (hour/week) 2
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 1
Semester when the course unit is
delivered 2
Name of Lecturer
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Express the subject of written expression in the dailylife. Comprehension the importance of
punctuation in the written expression.
Learning Outcomes
1.Using the written expression effectively
2. Using the verbal expression effectively
3.Using the punctuation marks
4.Comprehension the rules of orthography
5.Propose the solution for the language problems
Course Contents
Types of teaching manuscript
Types of the written expression and their properties
Verbal expression properties
Types of prepared speaking
Importance of the punctuation in the written expression
Punctuation Marks
Importance of the rules of orthography in the language
Usings of the rules of orthography
Suitable using with rules of the language in the special or formal attemts
Expression wrongs about words
Our language’s expression defects which are comes from affecting other language .
Solution of the this days language problems
Achievment in the verbal and written expression
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Theoretical Courses Teaching & Learning Methods
1 Types of teaching manuscript Telling and explanation
2 Types of the written expression and their
properties Telling and explanation
3 Verbal expression properties Telling and explanation
4 Importance of the punctuation in the
written expression Telling and explanation
5 Midterm exam
6 Punctuation Marks Telling and explanation
7 Importance of the rules of orthography in
the language Telling and explanation
8 Usings of the rules of orthography Telling and explanation
9 Suitable using with rules of the language in
the special or formal attemts Telling and explanation
10 Midterm exam
11 Expression wrongs about words Telling and explanation
12 Our language’s expression defects which
are comes from affecting other language Telling and explanation
13 Solution of the this days language
problems Telling and explanation
14 Achievment in the verbal and written
expression Telling and explanation
15 Final exam
Recommended or
Required Reading
Lecture notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment
Project
Presentation/ Preparing
Seminar
Mid-terms 2 100
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 2 30
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 2 30
Assignments
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 4 8
Final examination 1 5 5
Total Work Load 33 13 73
Total Work Load / 30 (h) - - 2,43
ECTS Credit of the Course - - 3
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 4 5 5
LO2 4 5 5
LO3 4 5 5
LO4 4 5 5
LO5 4 5 5
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title ANALYSIS III
Course Unit Code MAT 201
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 7
Theoretical (hour/week) 5
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 2
Semester when the course unit is
delivered 3
Name of Lecturer RESEARCH ASSİSTANTS OF MATHEMATİC DEPARTMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKİSH
Prerequisities and co-requisities ANALYSIS I-II, LİNEAR ALGEBRA I-II
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course
Many quantities can be regarded as depending on more than one variable, and thus to be
functions of more than one variable and functions of a single real variable that have vector
values. It is discussed that kind of functions in this course.
Learning Outcomes 1) He/She is able to recognize function of several variables.
2) He/She is able to recognize limit and continuity at the function of several variables.
3) He/She is able to recognize the total differential
4) He/She is able to calculate extremes values of a given function.
5) He/She is able to expand a given function to Taylor’s and Mac-Lauren’s series.
6) He/She is able to find out the partial derivative of implicit functions.
7) He/She is able to calculate the derivative in any given direction.
8) He/She is able to calculate the derivative of integrals dependent on a parameter.
Course Contents
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Theoretical Courses Teaching & Learning Methods
1 Functions of several variables [1] Pages 1-27
2 Limits and continuity [1] Pages 28-64
3 Partial derivatives, directional derivatives,
gradients [1] Pages 65-106;
4 Total increment and total differential [1] Pages 107-139
5 First exam
6 Approximation by total differentials [1] Pages 263-284
7 Taylor’s and Maclaurin’s formula [1] Pages 140-154
8 Extreme values for a function of several
variables [1] Pages 286-307
9 Applications of differential calculus to
solid geometry [1] Pages 311-320
10 Second exam
11 Rules for differentiating vector functions [1] Pages 320-329
12
Tangent and normal plane equation of a
curve, Tangent plane and normal equation
of a surface [1] Pages 330-338
13 Differentiating integrals dependent on a
parameter [1] Pages 387-436
14 The gamma function, Laplace
transformation [1] Pages 387-436
15 Final exam
16
Recommended or
Required Reading
[1] PISKUNOV, N., Differential and integral calculus, Vol. I, Translated from the Russian by George
YANKOVSK, Mir Publishers, MOSCOW, 1974.
[2] FLEMING, W.H., Functions of several variables, Addison-Wesley Publishing Company, INC.,
ATLANTA, 1965.
[3] WEBB, J.R.L., Functions of several variables, Ellis Harwood Limited, LONDON, 1991.
[4] ADAMS, R. A., Calculus: A complete course, Addison-Wesley Publishers Limited, CANADA, 1995.
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 5 %20
Project NONE NONE
Presentation/ Preparing
Seminar NOEN NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 5 75
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 8 120
Assignments 5 11 55
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 20 40
Final examination 1 20 20
Total Work Load - - 310
Total Work Load / 30 (h) - - 10,33
ECTS Credit of the Course - - 7
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 4 4 4 5 5 4
LO2 4 4 4 5 5 4
LO3 4 4 4 5 5 4
LO4 4 4 4 5 5 4
LO5 4 4 4 5 5 4
LO6 4 4 4 5 5 4
LO7 4 4 4 5 5 4
LO8 4 4 4 5 5 4
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title DIFFERENTIAL EQUATIONS I
Course Unit Code MAT 303
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 5
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course This lesson is planned for to solve equations involving derivative and to give applications.
Learning Outcomes
At the end of this course you will be able to:
1) Recognize differential equation
2) Classifie differential equations
3) Find equation which solution is known
4) Recognize and solve first order equation
5) Find a curve which cuts another curve
6) Recognize high order equation
7) Find a solution linear homogenous equation with constant coefficient
8) Find a solution linear nonhomogenous equation with constant coefficient
Course Contents
Definition of differential equation and basic information, Definition of differential equation and
basic information, Solving of differential equations, Geometrical explanation of the solutions of
differential equations, Initial and bounded value conditions, Initial and bounded value conditions
First order equations, First order equations, Picard iteration tecnique, Clairaut and lagrange
equations
Clairaut and lagrange equations, Second order equations with constant coefficient, D operator
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Theoretical Courses Teaching & Learning Methods
1 Definition of differential equation and
basic information Explaining Method, Questioning Method
2 Definition of differential equation and
basic information Explaining Method, Questioning Method
3 Solving of differential equations Explaining Method, Questioning Method
4 Geometrical explanation of the solutions of
differential equations Explaining Method, Questioning Method
5 Mid-Term Exam
6 Initial and bounded value conditions Explaining Method, Questioning Method
7 Initial and bounded value conditions Explaining Method, Questioning Method
8 First order equations Explaining Method, Questioning Method
9 First order equations Explaining Method, Questioning Method
10 Mid-Term Exam
11 Picard iteration tecnique Explaining Method, Questioning Method
12 Clairaut and lagrange equations Explaining Method, Questioning Method
13 Clairaut and lagrange equations Explaining Method, Questioning Method
14 Second order equations with constant
coefficient Explaining Method, Questioning Method
15 D operator Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 3 45
Assignments 2 15 30
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 165
Total Work Load / 30 (h) - - 5.5
ECTS Credit of the Course - - 4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title FOREIGN LANGUAGE I
Course Unit Code MAT 303
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits Allocated 3
Theoretical (hour/week) 2
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 2
Semester when the course unit is
delivered 3
Name of Lecturer OKT. RECEP MUTLU SALMAN
Mode of Delivery FACE TO FACE
Language of Instruction ENGLISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course
The aim of this course is;for undergratude student in B1 Level of English(European Language
Portfolio Global Scale), to have basic gramer, to understand oral production, to speak
interactively, to understand reading and to express themselves in written form for undergratude
students
Learning Outcomes
1) Having attended this course, He/She is able to have a sufficient level of English (European
Language Portfolio Global Scale, Level A2) for their field of study
2)He/She is able to understand short and clear messages,
3) He/She is able to understand short, daily passages,
4) He/She is able to communicate in simple, everyday situations,
5) He/She is able to talk about themselves and their environment in a simple language,
6) He/She is able to write short, simple notes and messages.
Course Contents
English grammar, vocabulary, reading comprehension, oral production and writing skills in
order to help students follow occupational English courses in next years and prepare them for
learning English further after university and in professional life
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1
Personal pronouns, Present Simple tense,
verb, to be, Verb to be, negative and
interrogative form
Lesson Book
2
Nouns : singular and plural, Possessive
adjectives, The indefinite article,
Prepositions
Lesson Book
3 Numbers, Questions with, what and how
old, Determiners Lesson Book
4 Countable uncountable nouns, Possessives Lesson Book
5 FIRST EXAM
6 Have got / has got, this , that, these, those Lesson Book
7 Simple Present Tense affirmative, Time
adverbials with S. Present Tense
8
Simple Present Tense negative,
interrogative, State verbs (love, hate),
Performative verbs
Lesson Book
9 Telling the time, Revision Lesson Book
10 SECOND EXAM
11 Gerunds Lesson Book
12 There is / there are, Prepositions (at, in,
under)
Lesson Book
13 Can and Can not, Ability, request,
permission
Lesson Book
14 Giving directions, Imperatives, Cardinal
numbers
Lesson Book
15 FINAL EXAM
16
Recommended or
Required Reading
Lesson Book
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 1 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 2 30
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 1 1
Assignments 1 5 5
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 5 10
Final examination 1 10 10
Total Work Load - - 70
Total Work Load / 30 (h) - - 2,33
ECTS Credit of the Course - - 3
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 4 4
LO2 4 4
LO3 4 4
LO4 4 4
LO5 4 4
LO6 4 4
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title LİNEAR ALGEBRA I
Course Unit Code MAT 209
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 2
Semester when the course unit is
delivered 3
Name of Lecturer RESEARCH ASSİSTANT OF MATHEMATİC DEPARTMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course The objective of this course is to give the fundamental knowledge of matrices and determinants,
introducing the equation systems and investigating the solutions of equation systems.
Learning Outcomes
1) He/She is able to understand the geometry of m dimensional real vector space and basic
concepts.
2)He/She is able to understand basic concepts
3) He/She is able to recognize the systems of linear equation and matrices.
4) He/She is able to solve a given linear equation system.
5) He/She is able to explain the properties of determinants.
6) He/She is able to apply matrices and determinants to a systems of linear equation.
7) He/She is able to understand the theory of the systems of linear equation
Course Contents Algebraic structures, Matrices, Determinants, Linear equation systems, Theory of linear
equation systems.
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Theoretical Courses Teaching & Learning Methods
1 Algebraic structures
2 Algebraic structures
3 Matrices
4 Matrices
5 FİRST EXAM
6 Matrices
7 Determinants
8 Determinants
9 Determinants
10 SECOND EXAM
11 Linear equation systems
12 Linear equation systems
13 Theory of linear equation systems
14 Theory of linear equation systems
15 FİNAL EXAM
16
Recommended or
Required Reading
[1] Lenear Algebra and Geometry, D.M. Bloom, Cambridge Universty Press, London, 1979.
[2]Lineer Cebir, H.H.Hacısalihoğlu, Gazi Üniversitesi Yayınları, 1985
[3]Lineer Cebir, A.Sabuncuoğlu, Nobel Yayınları, Ankara, 2004
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 2 8 16
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 5 10
Final examination 1 5 5
Total Work Load - - 121
Total Work Load / 30 (h) - - 4,03
ECTS Credit of the Course - - 4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 1 4 4 4 4
LO2 1 4 4 4 4
LO3 1 4 4 4 4
LO4 1 4 4 4 4
LO5 1 4 4 4 4
LO6 1 4 4 4 4
LO7 1 4 4 4 4
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title PROBABILITY AND STATISTICAL I
Course Unit Code MAT 205
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 2
Semester when the course unit is
delivered 3
Name of Lecturer RESEARCH ASSISTANT OHF MATHEMATİCAL DEPARTMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities ANALYSIS I-II
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course The aim of this course is to show notions, definations with respect to Probability and
Probability Theory and is to explain relations with events
Learning Outcomes
1) He/She is able to use the rules of probability
2) He/She is able to use random variables and their functions.
3) He/She is able to summarize expected value, Variance and moments.
4) He/She is able to restate distributions of random variables.
5) He/She is able to restate some important distributions.
6) He/She is able to define basic concepts of a process.
7) He/She is able to describe multivariable distributions and inference.
Course Contents
Combinatorial Analysis, Probability axioms, random variables and their functions, expected
value, momet and moment generating functions, distributions of change variables, investigating
of some discrete and constant distributions, multivariable distributions, covariance and
correlation
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Theoretical Courses Teaching & Learning Methods
1 Counting tecniques, permutation and
combination. [1] Pages 1-15
2 Repeated combination, combination
generating functions. [1] Pages 16-22
3
Introduction to probability, some rules of
probability, Independent events,
Conditional Probability, Bayes´ theorem.
[1] Pages 51-70
4
Random variables and distribution of a
random variable. Probability function and
distribution function.
[1] Pages 107-117
5 FIRST EXAM
6 Expected value, Variance and variational
coefficient. [1] Pages 118-122
7 Moments and moment generating funtions [1] Pages 126-135
8 Some discrete distributions [1] Pages 169-194
9 Introducing some important continuous
distributions [1] Pages 195-217
10 SECOND EXAM
11 Processes and Poisson process.
Multivariable distrubution. [1] Pages 223-227
12 Expected values and moments for
multivariable distrubutions. [1] Pages 239-247
13 Covariance and correlation. [1] Pages 248-261
14 Regression, Distributions for function of
random variables [1] Pages 262-270
15 FINAL EXAM
16
Recommended or
Required Reading
[1] Ö.Faruk GÖZÜKIZIL ve Metin Yaman, Olasılık Problemleri, Sakarya Kitabevi, 2005.
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 1 15
Assignments 1 5 5
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 7,5 15
Final examination 1 15 15
Total Work Load - - 95
Total Work Load / 30 (h) - - 3,16
ECTS Credit of the Course - - 4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 5 4 5
LO2 3 5 4 5
LO3 3 5 4 5
LO4 3 5 4 5
LO5 3 5 4 5
LO6 3 5 4 5
LO7 3 5 4 5
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title INTRODUCTION TO TOPOLOGY I
Course Unit Code MAT 207
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 2
Semester when the course unit is
delivered 3
Name of Lecturer RESEARCH ASSİATANT OF MATHEMATİC DEPARTMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities ABSTRACT ALGEBRA I-II, ANALYSIS I-II
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course
The aim of this course is to give the fundamental concepts of general topology and the methods
of proof. Also, the other aim is to give information about metric and topological properties of
mathematical concepts in metric spaces that are important for the mathematics science.
Learning Outcomes
1) He/She is able to define the basic concepts of metric space,
2) He/She is able to decide whether arbitrary functions are metric or not,
3)He/She is able to proof basic theorems in metric spaces
4) He/She is able to define basic concepts of topology which are the bases of theoretical courses
5)He/She is able to decide whether giving structure is topology or not,on an arbitrary set
6)He/She is able to proof important theorems by using the properties of topological space
7)He/She is able to solve problems by using topology
8)He/She is able to develop the culture of mathematic by getting abstract thinking ability
Course Contents
Metric spaces, submetric spaces, isometries, Open and closed disks, spheres, diameters,
Topology of metric spaces, Sequences and continuity in metric spaces, Topological structure
and open sets in topological spaces closed sets and properties of the family of closed subsets in
topological spaces, neighborhoods of a point and fundamental systems of neighborhoods, Bases
and subbases of a topology, Continuity of functions in a topological space and
homeomorphisms, Sequences in the topological space and limit of a sequence, T2 spaces,
Subspaces, finite products of topological spaces.
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1 Metric spaces, submetric spaces,
isometries [1] Pages 1-4
2 Open and closed disks, spheres, diameters [1] Pages 4-13
3 Topology of metric spaces [1] Pages 14-16
4 Sequences and continuity in metric spaces [1] Pages 17-33
5 FİRST EXAM
6
Topological structure and open sets in
topological spaces closed sets and
properties of the family of closed subsets
in topological spaces, neighborhoods of a
point and fundamental systems of
neighborhoods
[1] Pages 33-36
7 Bases and subbases of a topology [1] Pages 37-40
8 Systems of open neighborhoods [1] Pages 40-49
9 Equality of topologies and comparison of
topologies [1] Pages 50-51
10 SECOND EXAM
11 Contact and limit points of a set in the
topologic space [1] Pages 51-54
12 Interior point and interior of a set, closure
point and closure of a set [1] Pages 54-57
13
The frontier of a subset, dense, nowhere
dense, somewhere dense subsets of
topological spaces
[1] Pages 57-64
14 Continuity of functions in a topological
space and homeomorphisms [1] Pages 64-67
15 FINAL EXAM
16
Recommended or
Required Reading
[1] Gürkanlı A. Turan, Genel Topoloji, Samsun, 1993.
[2]Lipschutz, S., General Topology, Schaum Publishing Co., 1965
[3]Özdamar, E., Görgülü A., Alp, A., Genel topoloji, Uludağ Üni. Yayınları, 1999.
[4]Aslım, G., Genel topoloji, İzmir, Ege Üniversitesi, 1988
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 2 4 8
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 10 20
Final examination 1 10 10
Total Work Load - - 128
Total Work Load / 30 (h) - - 4,26
ECTS Credit of the Course - - 4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 4 3 3 5
LO2 4 3 3 5
LO3 4 3 3 5
LO4 4 3 3 5
LO5 4 3 3 5
LO6 4 3 3 5
LO7 4 3 3 5
LO8 4 3 3 5
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title CLASSICAL INEQUALITIES
Course Unit Code SMAT 203
Type of Course Unit OPTIONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 2
Semester when the course unit is
delivered 3
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course To introduce some classical inequalities arising in Mathematics and to apply these inequalities to
some problems
Learning Outcomes
At the end of this course you will be able to:
1) He/She recognize classical inequalities.
3) He/She learn proof these inequalities.
4) He/She apply these inequalities to some problems.
5) He/She define Wirtinger type ineualities.
Course Contents Inequalities, Classical Inequalities, Maximum Problems, Applications
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Theoretical Courses Teaching & Learning Methods
1 Clasical inequalities Explaining Method, Questioning Method
2 Aritmatic-geometric mean inequality Explaining Method, Questioning Method
3 Cauchy-Shwarz inequality Explaining Method, Questioning Method
4 Holder?s and young?s inequalities Explaining Method, Questioning Method
5 Mid-Term Exam
6 Triangle inequality, minkowsky?s
inequality Explaining Method, Questioning Method
7 Maximum problems Explaining Method, Questioning Method
8 Dido problem, inverse problem, rich
american footballer Explaining Method, Questioning Method
9 Integral inequality Explaining Method, Questioning Method
10 Mid-Term Exam
11 Gronwal inequality Explaining Method, Questioning Method
12 Jensen inequality, logaritmic-convexity
inequality Explaining Method, Questioning Method
13 Back Minkovsky?s inequality, hardy?s
inequality Explaining Method, Questioning Method
14 Wirtinger type inequalities Explaining Method, Questioning Method
15 Sobolev inequalities Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading
Lecture Notes
[1] Korowkin, K.K., ?Inequalities?, T.M.D. yay. (çeviri) 1974.
[2] Beckenbach,E.F., Bellman, B., ?Introduction to Inequalities?, TMD yay. (çeviri) 1962.
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
10 1 10
Assignments 1 10 10
Project - -
Presentation/ Preparing Seminar - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
- -
Mid-terms 2 7,5 15
Final examination 1 15 15
Total Work Load - - 95
Total Work Load / 30 (h) - - 3,16
ECTS Credit of the Course - - 4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 1 1 3 3 3
LO2 2 2 3 3 3
LO3 3 3 2 2 2
LO4 1 1 1 1 1
LO5 2 2 2 2 2
LO6 2 2 4 4 4
LO7 3 3 2 2 2
LO8 1 1 1 1 1
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title MATHEMATICAL THINKING
Course Unit Code SMAT 201
Type of Course Unit OPTIONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 2
Semester when the course unit is
delivered 3
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Construct a general culture about what matematic is.
Learning Outcomes
At the end of this course you will be able to:
1) Have enough knowledge about mathematics’ historical development
2) Identify famous mathematicians and their working methods
3) Identify prof methods.
4) Identify achademic studying methods
5) have knowledge about education of mathematics and apply these.
Course Contents Historical development of mathematics, methods of mathematical thinking, instruments of
mathematics, theorems and methods of proving
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Theoretical Courses Teaching & Learning Methods
1 Historical development of mathematics Explaining Method, Questioning Method
2 Historical development of mathematics Explaining Method, Questioning Method
3 methods of mathematical thinking Explaining Method, Questioning Method
4 methods of mathematical thinking Explaining Method, Questioning Method
5 Mid-Term Exam
6 Instruments of mathematics Explaining Method, Questioning Method
7 Instruments of mathematics Explaining Method, Questioning Method
8 Theorems and methods of proving Explaining Method, Questioning Method
9 Theorems and methods of proving Explaining Method, Questioning Method
10 Mid-Term Exam
11 Certainty in mathematics Explaining Method, Questioning Method
12 Certainty in mathematics Explaining Method, Questioning Method
13 Opinions about Fundamentals of
mathematics Explaining Method, Questioning Method
14 Opinions about Fundamentals of
mathematics Explaining Method, Questioning Method
15 Mathematics education Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 3 45
Assignments 1 10 10
Project - -
Presentation/ Preparing Seminar - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
- -
Mid-terms 2 7,5 15
Final examination 1 15 15
Total Work Load - - 130
Total Work Load / 30 (h) - - 4.33
ECTS Credit of the Course - - 4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title ANALYSIS IV
Course Unit Code MAT 202
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 7
Theoretical (hour/week) 5
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 2
Semester when the course unit is
delivered 4
Name of Lecturer RESEARCH ASSİSTANTS OF MATHEMATİC DEPARTMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities ANALYSIS I-II-III, LİNEAR ALGEBRA I-II
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course
It is extend the concept of definite integral to functions of several variables and functions of a
single real variable that have vector values. They are used to represent and calculate quantities
specified in terms of densities in regions of the plane or spaces of higher dimensions. Such
integrals are discussed in this course.
Learning Outcomes
1) He/She is able to strengthen culture of general mathematics.
2) He/She is able to make the construction of multiple integrals.
3) He/She is able to establishe a connection between with the double integral and the twofold
iterated integral.
4) He/She is able to evaluate double integral changing variables if necessary.
5) He/She is able to establishe a connection between the triple integral and the threefold iterated
integral.
6) He/She is able to evaluate triple integral changing variables if necessary.
7) He/She is able to understand the concepts of line integrals and surface integrals.
8) He/She is able to evaluate the line integrals and surface integrals.
Course Contents
Introduction to double integrals, Calculating double integrals, Change of variables in a double
integral, Applications of double integrals, Triple integrals, Applications of triple integrals,
Change of variables in a triple integral, Line integrals, Surface integrals, Applications of surface
integrals, The divergence theorem, Green’s Theorem and Stokes’s Theorem, Applications of the
divergence theorem, Green’s Theorem and Stokes Theorem.
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Theoretical Courses Teaching & Learning Methods
1 Introduction to double integrals [1] Pages 158-161
2 Calculating double integrals [1] Pages 161-166
3 Change of variables in a double integral [1] Pages 166-172
4 Applications of double integrals [1] Pages 172-187
5 FİRST EXAM
6 Triple integrals [1] Pages 197-200
7 Change of variables of triple integral [1] Pages 200-204
8 Applications of triple integral [1] Pages 204-209
9 Curvilinear integrals [1] Pages 216-225
10 SECOND EXAM
11 Curvilinear integrals, Green’s Theorem
and its applications [1] Pages 225-232
12 Surface integrals [1] Pages 232-236
13 The applications of surface integrals [1] Pages 232-236
14 Divergence Theorem and Stokes Theorem [1] Pages 236-244
15 FİNAL EXAM
16
Recommended or
Required Reading
[1] PISKUNOV, N., Differential and integral calculus, Vol. II, Translated from the Russian by George
YANKOVSK, Mir Publishers, MOSCOW, 1974.
[2] FLEMING, W.H., Functions of several variables, Addison-Wesley Publishing Company, INC.,
ATLANTA, 1965.
[3] WEBB, J.R.L., Functions of several variables, Ellis Harwood Limited, LONDON, 1991.
[4] ADAMS, R. A., Calculus: A complete course, Addison-Wesley Publishers Limited, CANADA, 1995.
[5] PISKUNOV, N., Differential and integral calculus, Vol. I, Translated from the Russian by George
YANKOVSK, Mir Publishers, MOSCOW, 1974.
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 5 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 5 75
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 8 120
Assignments 5 11 55
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 20 40
Final examination 1 20 20
Total Work Load - - 310
Total Work Load / 30 (h) - - 10,33
ECTS Credit of the Course - - 7
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 4 4 4 5 5 4
LO2 4 4 4 5 5 4
LO3 4 4 4 5 5 4
LO4 4 4 4 5 5 4
LO5 4 4 4 5 5 4
LO6 4 4 4 5 5 4
LO7 4 4 4 5 5 4
LO8 4 4 4 5 5 4
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title DIFFERENTIAL EQUATIONS II
Course Unit Code MAT 304
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 6
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course This lesson is planned for to solve equations involving derivative and to give applications.
Learning Outcomes
At the end of this course you will be able to:
1) Recognize and solves equations with variable coefficient
2) Recognize and solves eigenvalue problems
3) Know the feature of Sturm Liouville problem
4) Solve some nonlinear equations
5) Solve equations using convergent series
6) Know Laplace transform
7) Solve equation use Laplace transform
Course Contents
Definition of differential equation and basic information, Definition of differential equation and
basic information, Solving of differential equations, Geometrical explanation of the solutions of
differential equations, Initial and bounded value conditions, Initial and bounded value conditions
First order equations, First order equations, Picard iteration tecnique, Clairaut and lagrange
equations
Clairaut and lagrange equations, Second order equations with constant coefficient, D operator
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Theoretical Courses Teaching & Learning Methods
1 Definition of differential equation and
basic information Explaining Method, Questioning Method
2 Definition of differential equation and
basic information Explaining Method, Questioning Method
3 Solving of differential equations Explaining Method, Questioning Method
4 Geometrical explanation of the solutions of
differential equations Explaining Method, Questioning Method
5 Mid-Term Exam
6 Initial and bounded value conditions Explaining Method, Questioning Method
7 Initial and bounded value conditions Explaining Method, Questioning Method
8 First order equations Explaining Method, Questioning Method
9 First order equations Explaining Method, Questioning Method
10 Mid-Term Exam
11 Picard iteration tecnique Explaining Method, Questioning Method
12 Clairaut and lagrange equations Explaining Method, Questioning Method
13 Clairaut and lagrange equations Explaining Method, Questioning Method
14 Second order equations with constant
coefficient Explaining Method, Questioning Method
15 D operator Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 3 45
Assignments 2 15 30
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 165
Total Work Load / 30 (h) - - 5.5
ECTS Credit of the Course - - 4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title FOREIGN LANGUAGE II
Course Unit Code FL 202
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits Allocated 3
Theoretical (hour/week) 2
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 2
Semester when the course unit is
delivered 4
Name of Lecturer OKT. RECEP MUTLU SALMAN
Mode of Delivery FACE TO FACE
Language of Instruction ENGLISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course
The aim of this course is;for undergratude student in B1 Level of English(European Language
Portfolio Global Scale), to have basic gramer, to understand oral production, to speak
interactively, to understand reading and to express themselves in written form for undergratude
students
Learning Outcomes
1) Having attended this course, He/She is able to have a sufficient level of English (European
Language Portfolio Global Scale, Level B1) for following their field of study and
communicating with their colleagues
2) He/She is able to speak regarding everyday life
3)He/She is able to travel abroad where English is spoken
4) He/She is able to explain thoughts ,plans and wishes of him/her
5) He/She is able to write short personal letters describing experiences and impressions.
6) He/She is able to understand conversation in school, job and similar places
7) He/She is able to understand texts regarding job and including favorites words
Course Contents
English grammar, vocabulary, reading comprehension, oral production and writing skills in
order to help students follow occupational English courses in next years and prepare them for
learning English further after university and in professional life.
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Theoretical Courses Teaching & Learning Methods
1
Present Continuous Affirmative, Present
Continuous negative and question form,
Time adverbials with Present Continuous
Lesson Book
2
Adjectives (before and after nouns),
Adjectives after pronouns, Verb +
adjective d. Modifying verb + adjective
Lesson Book
3 Stative and dynamic adjectives, ed and ing
adjectives
Lesson Book
4 Adverbs (fast, quickly), Adverbs of
manner, place and time
Lesson Book
5 FIRST EXAM
6 Simple Past tense affirmative, Time
adverbials with Simple Past tense
Lesson Book
7 Regular and irregular verbs, Time clauses
with the Simple Past Tense
Lesson Book
8 Comparatives and superlatives, Regular
adjectives
Lesson Book
9 Comparatives and superlatives, Irregular
adjectives
Lesson Book
10 SECOND EXAM
11 Present Perfect affirmative, Time
Adverbials
Lesson Book
12
Present Perfect in use (experience,
accomplishment), for, since; still, yet, ever,
never, since, just, already e. Present
Perfect Continuous
Lesson Book
13 Revision Lesson Book
14 Simple Future, will / be going to,Past
Continuous, Time Adverbials
Lesson Book
15 FINAL EXAM
16
Recommended or
Required Reading
Lesson Book
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 1 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 2 30
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 1 15
Assignments 1 5 5
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 5 10
Final examination 1 10 10
Total Work Load - - 70
Total Work Load / 30 (h) - - 2,33
ECTS Credit of the Course - - 3
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 5 5
LO2 5 5
LO3 5 5
LO4 5 5
LO5 5 5
LO6 5 5
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title LİNEAR ALGEBRA II
Course Unit Code MAT 210
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 2
Semester when the course unit is
delivered 4
Name of Lecturer RESEARCH ASSİSTANT OF MATHEMATİC DEPARTMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course
The objective of this course is to find structures of several spaces and linear equation between
these spaces by using vector spaces. İnterpretting the problems producing an idea and attaining
an ability of solving for problems.
Learning Outcomes
1) He/She is able to learn construction of linear space.
2) He/She is able to learn the concept of linear independence and linear dependence.
3) He/She is able to learn concepts of basis and dimension.
4) He/She is able to comprehend the linear transformations.
5) He/She is able to relate linear spaces with the concept of linear transformations.
6) He/She is able to get the information about eigen values and eigen vectors
7) He/She is able to realize the construction of inner product .
Course Contents Vector spaces, Linear transformations, Eigen values, Eigen vectors, Diagonalization, Inner
product spaces, Dual spaces and Aygen spaces
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Theoretical Courses Teaching & Learning Methods
1 Eigen values
2 Eigen values
3 Eigen vectors
4 Eigen vectors
5 FİRST EXAM
6 Diagonalization
7 Diagonalization
8 Vector spaces
9 Vector spaces
10 SECOND EXAM
11 Linear transformations
12 Linear transformations
13 Inner product spaces
14 Inner product spaces
15 FINAL EXAM
16
Recommended or
Required Reading
[1] Lenear Algebra and Geometry, D.M. Bloom, Cambridge Universty Press, London, 1979.
[2]Lineer Cebir, H.H.Hacısalihoğlu, Gazi Üniversitesi Yayınları, 1985
[3]Lineer Cebir, A.Sabuncuoğlu, Nobel Yayınları, Ankara, 2004
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 2 8 16
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 5 10
Final examination 1 5 5
Total Work Load - - 121
Total Work Load / 30 (h) - - 4,03
ECTS Credit of the Course - - 4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 1 4 4 4 4
LO2 1 4 4 4 4
LO3 1 4 4 4 4
LO4 1 4 4 4 4
LO5 1 4 4 4 4
LO6 1 4 4 4 4
LO7 1 4 4 4 4
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title PROBABILITY AND STATISTICAL II
Course Unit Code MAT 206
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 2
Semester when the course unit is
delivered 4
Name of Lecturer RESEARCH ASSISTANT OHF MATHEMATİCAL DEPARTMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities ANALYSIS I-II, PROBABILTY AND STATICTICAL I
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course
The aim of this course is to introduce the concept of sampling and to present some distributions
theoretical results and point estimation and interval estimation that are engendered by sampling,
to introduce the subject of the tests of hypotheses which are important problems in statistics and
to give simple regression and correlation.
Learning Outcomes
1) He/She is able to consolidate basic probability culture.
2) He/She is able to classify datas
3) He/She is able to realize measures of centered tendency and variation.
4) He/She is able to realize the concept of point estimation
5) He/She is able to demonstrate interval estimation for any parameter.
6) He/She is able to explain first and second type of error.
7) He/She is able to design hypotheses tests for various parameters.
8) He/She is able to explain differences between independence and goodness of fitting.
Course Contents
Basic concepts and terminology, Classify and analysis of datas, Measures of centered tendency
and variation, Sampling and sampling distributions, Mean of sampling, variance of sampling
and their properties, Point and interval estimations of parameters, Statistical inference, Variety
of hypothesis and first and second type of error, Testing basic hypotheses, Parametric
hypotheses testing, Nonparametric hypotheses testing; test of independence, homogeneity and
goodness of fitting.
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1 Basic concepts and terminology [1] Pages 270-278
2 Organization and analysis of data [1] Pages 270-278
3 Measures of centered tendency and
variation [1] Pages 279-297
4 Sampling and sampling distributions [1] Pages 313-323
5 FIRST EXAM
6 Mean of sampling, variance of sampling
and their properties [1] Pages 313-323
7 Point and interval estimations of
parameters [1] Pages 324-358
8 Interval estimations of parameters [1] Pages 324-358
9 Testing basic hypotheses, first and second
type of error [1] Pages 363-368
10 SECOND EXAM
11 Hypotheses test for mass mean with
normal distribution [1] Pages 369-380
12 Comparing confidence interval with testing
hypotheses [1] Pages 380-384
13 Testing hypotheses for mass variance with
normal distribution and Binom parameter [1] Pages 385-398
14 Choosing sampling size for testing means [1] Pages 399-406
15 FINAL EXAM
16
Recommended or
Required Reading
[1] Akdeniz, F., Olasılık ve İstatistik, , Adana,Doğa Matbaacılık, 2000 (Ders Kitabı)
[2] Ersoy, N., Erbaş, SO, Olasılık ve İstatistiğe Giriş, 5. Baskı, Gazi Büro Kitabevi, Ankara, 2005.
[3] DeGroot, MH, Schervish, MJ, Probability and Statistics, 3rd Ed., P. Addison Wesley, 2004
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 1 15
Assignments 1 5 5
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 7,5 15
Final examination 1 15 15
Total Work Load - - 95
Total Work Load / 30 (h) - - 3,16
ECTS Credit of the Course - - 4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 5 4 5
LO2 3 5 4 5
LO3 3 5 4 5
LO4 3 5 4 5
LO5 3 5 4 5
LO6 3 5 4 5
LO7 3 5 4 5
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title INTRODUCTION TO TOPOLOGY II
Course Unit Code MAT 208
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 2
Semester when the course unit is
delivered 4
Name of Lecturer RESEARCH ASSİATANT OF MATHEMATİC DEPARTMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities INTRODUCTION TO TOPOLOGY I
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course
The aim of this course is to give the fundamental concepts of topology and the methods of
proof. Besides, the other aims are to discuss the advanced topological concepts, to discover the
relations between topology and the other disciplines and to learn topics about compact spaces,
local compact spaces, connected spaces, separation axioms convergence, countability.
Learning Outcomes
1) He/She is able to define compactness in topologic space,
2) He/She is able to compare the compactness in classical analysis with compactness in
topologic space,
3) He/She is able to prove fundamental theorems in compact topologic space,
4) He/She is able to define countable compactness and sequentially compactness,
5) He/She is able to prove the theorems related to countable compactness and sequentially
compactness,
6) He/She is able to define the concepts of the connected spaces,
7) He/She is able to solve the problems by the aid of the concepts of the connected spaces
8) He/She is able to classify topologic spaces,
Course Contents Compact spaces, local compact spaces, sequentially compactness, countable compactness,
connected spaces, separation axioms, convergence, countability.
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Theoretical Courses Teaching & Learning Methods
1 Compact topological spaces [1] Pages 89-107
2 Local compact spaces [1] Pages 107-109
3 Compactness [1] Pages 109-112
4 Countable compactness, sequentially
compactness [1] Pages 112-120
5 FIRST EXAM
6 Connected spaces [1] Pages 120-126
7 Connectedness on the reel line, some
applications of connected spaces [1] Pages 126-131
8 Local connected spaces [1] Pages 131-139
9 Separation Axioms,T0-spaces, T1-spaces [1] Pages 139-143
10 SECOND EXAM
11 Regular spaces and T3-spaces [1] Pages 143-145
12 Normal spaces and T4-spaces [1] Pages 145-152
13 Urysohn Lemma, Tietze Extension
Theorem [1] Pages 152-157
14 Convergence, nets, subnets, convergence
of nets [1] Pages 157-170
15 FINAL EXAM
16
Recommended or 1] Gürkanlı A. Turan, Genel Topoloji, Samsun, 1993. [1] Gürkanlı A. Turan, Genel Topoloji, Samsun, 1993.
Required Reading
[2] Lipschutz, S., General Topology, Schaum Publishing Co., 1965
[3] Özdamar, E., Görgülü A., Alp, A., Genel topoloji, Uludağ Üni. Yayınları, 1999.
[4] Aslım, G., Genel topoloji, İzmir, Ege Üniversitesi, 1988
[2] Lipschutz, S., General Topology, Schaum Publishing Co., 1965
[3] Özdamar, E., Görgülü A., Alp, A., Genel topoloji, Uludağ Üni. Yayınları, 1999.
[4] Aslım, G., Genel topoloji, İzmir, Ege Üniversitesi, 1988
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 2 4 8
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 10 20
Final examination 1 10 10
Total Work Load - - 128
Total Work Load / 30 (h) - - 4,26
ECTS Credit of the Course - - 4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 4 3 3 5
LO2 4 3 3 5
LO3 4 3 3 5
LO4 4 3 3 5
LO5 4 3 3 5
LO6 4 3 3 5
LO7 4 3 3 5
LO8 4 3 3 5
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title FIELD EXTENSIONS
Course Unit Code SMAT 202
Type of Course Unit OPTIONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 2
Semester when the course unit is
delivered 4
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course To teach algebraic integer numbers ring which is an extension of integer numbers ring
Learning Outcomes
At the end of this course you will be able to:
1) Apply concepts about vectoral spaces.
2) Understand linear transformations
3) Identify field extensions and apply them.
4) Understand …….. fields
5) Understand algebraic integer numbers ring.
6) Comprehend quadratic number fields.
Course Contents
Vectoral spaces, Base of the vector space, Linear transformations, Field extensions
Algebraic and transandant numbers, Degree of extension, Algebraic extensions, Prime tests in
polynomials, Algebraic integer number fields, Algebraic integer number fields, Norm and
discrimnant, Bases, Quadratic number fields
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Theoretical Courses Teaching & Learning Methods
1 Vectoral spaces Explaining Method, Questioning Method
2 Base of the vector space Explaining Method, Questioning Method
3 Linear transformations Explaining Method, Questioning Method
4 Field extensions Explaining Method, Questioning Method
5 Mid-Term Exam
6 Algebraic and transandant numbers Explaining Method, Questioning Method
7 Degree of extension Explaining Method, Questioning Method
8 Algebraic extensions Explaining Method, Questioning Method
9 Prime tests in polynomials Explaining Method, Questioning Method
10 Mid-Term Exam
11 Algebraic integer number fields Explaining Method, Questioning Method
12 Algebraic integer number fields Explaining Method, Questioning Method
13 Norm and discrimnant Explaining Method, Questioning Method
14 Bases Explaining Method, Questioning Method
15 Quadratic number fields Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
1 10 10
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
Assignments
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms
Final examination 2 7,5 15
Total Work Load 1 15 15
Total Work Load / 30 (h) - - 130
ECTS Credit of the Course - - 4.33
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title OPTIMIZATION
Course Unit Code SMAT 204
Type of Course Unit OPTIONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 2
Semester when the course unit is
delivered 4
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course The aim of this lesson is to investigate the optimization theory.
Learning Outcomes
At the end of this course you will be able to:
1) He/she describe the methods of optimization research.
2) He/she describe the linear programming problem.
3) He/she constitues the form of the linear programming problem
4) He/she investigates solutions of the linear programming problem
5) He/she check optimum of the solutions
6) He/she investigate optimum solutions
7) He/she investigate constitue of mathematic problem and solutions.
Course Contents
Mathematical operations research models
Construction of the LP model
Graphical LP solution
Graphical sensitivity analysis
Analytic solution
Determination of the feasible solution space
Analysis of selected LP models
The simplex method
The simplex algorithm
Special cases in simplex method application
Duality and sensitivity analysis
Economic interpretation of duality
Dual simplex method
Primal- dual computations
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Theoretical Courses Teaching & Learning Methods
1 The methods of optimization research Explaining Method, Questioning Method
2 The methods of optimization research Explaining Method, Questioning Method
3 The method in model construction Explaining Method, Questioning Method
4 Graphical LP solution Explaining Method, Questioning Method
5 Mid-Term Exam
6 Maximization and minimization problems
and its solutions Explaining Method, Questioning Method
7 Graphical sensitivity analysis Explaining Method, Questioning Method
8 Analytic solution, investigate of the
feasible solution space Explaining Method, Questioning Method
9 Analysis of selected LP models Explaining Method, Questioning Method
10 Mid-Term Exam
11 The simplex method, the simplex
algorithm Explaining Method, Questioning Method
12 Special cases in simplex method
application Explaining Method, Questioning Method
13 Duality and sensitivity analysis Explaining Method, Questioning Method
14 Dual simplex method Explaining Method, Questioning Method
15 Primal- dual computations Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading
Lecture Notes
[1] İmdat Kara, ?Doğrusal Programlama?Bilim Teknik yayınev.1991
[2] Hamdy. A. Taha.?Yöneylem Araştırması?Arkansas Üni.,2000,(evirenler: Ş.Alp. Baray- Şakir Esnaf.)
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
1 10 10
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
Assignments 2 20 40
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 15 30
Final examination 1 10 10
Total Work Load 90
Total Work Load / 30 (h) - - 3
ECTS Credit of the Course - - 4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 3 3 3 4 4
LO2 4 4 4 4 4 4
LO3 3 3 3 3 4 3
LO4 2 2 2 2 2 2
LO5 3 3 3 3 4 3
LO6 5 5 5 5 5 5
LO7 4 4 4 4 4 4
LO8 2 2 1 2 2 2
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title ABSTRACT ALGEBRA I
Course Unit Code MAT 301
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 7
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 6
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Helping to learning of the information about number theory
Learning Outcomes
At the end of this course you will be able to:
1) Identify divisibility, prime numbers and congruenses
2) Solve congruenses.
3) Identify Fermat, Euler and Wilson theorems.
4) explain subgroup, cyclic subgroups and normal subgroups
5) Explain group homeomorphism and isomorphism
6) Identify symmetric group.
Course Contents Algebraic structures, rings
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Theoretical Courses Teaching & Learning Methods
1 Divisibility and prime numbers Explaining Method, Questioning Method
2 Congruenses Explaining Method, Questioning Method
3 Congruenses Explaining Method, Questioning Method
4 Euler-Fi function Explaining Method, Questioning Method
5 Mid-Term Exam
6 Fermat Euler and Wilson theorems Explaining Method, Questioning Method
7 Fermat Euler and Wilson theorems Explaining Method, Questioning Method
8 Lineer congruenses Explaining Method, Questioning Method
9 High order congruenses Explaining Method, Questioning Method
10 Mid-Term Exam
11 Quadratik reversibility Explaining Method, Questioning Method
12 Quadratik reversibility Explaining Method, Questioning Method
13 Legendre symbol Explaining Method, Questioning Method
14 Jacobi symbol Explaining Method, Questioning Method
15 Jacobi symbol Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading
Lecture Notes
An Introduction To The Theory Of Numbers, Ivan Nıven-Herbert S. Zuckerman, New York. London,
1960
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 3 45
Assignments 2 15 30
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 165
Total Work Load / 30 (h) - - 5.5
ECTS Credit of the Course - - 7
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title PARTIAL DIFFERENTIAL EQUATIONS I
Course Unit Code MAT 407
Type of Course Unit COMPULSORY
Level of Course Unit BACHELOR (FİRST CYCLE)
Number of ECTS Credits Allocated 7
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 4
Semester when the course unit is
delivered 7
Name of Lecturer
Mode of Delivery FORMAL EDUCATİON
Language of Instruction TURKISH
Prerequisities and co-requisities Differential equation course is recommended.
Recommended Optional
Programme Components -
Work Placement -
Objectives of the Course
To solve the partial differential problems arising in science.
Learning Outcomes
1.At the and of this course you will be able to recognize and clasify PDEs
2 At the and of this course you will be able to solve first order linear and nonlinear PDEs.
3 At the and of this course you will be able to clasify 2nd order PDEs.
4 At the and of this course you will be able to solve second order linear equations.
5) At the and of this course you will be able to obtain solution by reducting canonical form
6 At the and of this course you will be able to identifie and interpret wave, Laplace and heat
equations.
Course Contents PDEs, first order equations, linear equatios, nonlinear equations, high order equations, linear
second order equations, nonlinear second order equatios, canonical form
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Theoretical Courses Teaching & Learning Methods
1 Introducing the PDEs TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
2 First order equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
3 First order equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
4 Linear equatios TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
5 Mid-term exam
6 Linear equatios TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
7 Nonlinear equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
8 Nonlinear equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
9 High order equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
10 Mid-term exam
11 Second order equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
12 Second order equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
13 Nonlinear second order equatios TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
14 Nonlinear second order equatios TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
15 Canonical form TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
16 Final exam
Recommended or
Required Reading
1. Differential Equations, Shepley L. Ross, John Wiley & Sons, New York, 1974.
2.Lectures on Differential Equations ,Ersan Akyıldız,Yılmaz Akyıldız,Şafak Alpay,Albert Ekip,Ali
Yazıcı,Matematik Vakfı,2000.
3. Adi Diferensiyel Denklemler , Mehmet Çağlıyan,Nisa Çelik,Setenay Doğan, Nobel Yayınları,2007. 4. Modern Uygulamalı Diferensiyel Denklemler, Yaşar Pala, Nobel Yayınları, 2006
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 20
Project -
Presentation/ Preparing
Seminar -
Quizzes -
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 4 60
Assignments 1 5 5
Project - -
Presentation/ Preparing Seminar - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - -
Mid-terms 2 7.5 15
Final examination 1 15 15
Total Work Load - - 140
Total Work Load / 30 (h) - - 4.66
ECTS Credit of the Course - - 7
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 3 3 3 3 3
LO2 4 4 4 4 4 4
LO3 5 5 5 5 5 5
LO4 3 3 3 3 3 3
LO5 5 5 5 5 5 5
LO6 2 2 2 2 2 2
LO7 4 4 4 4 4 4
LO8 3 3 3 3 3 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title PRINCIPLES OF ATATÜRK AND HISTORY OF TURKISH REVOLUTION I
Course Unit Code TAR 301
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 4
Theoretical (hour/week) 2
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 5
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course
To criticize the reasons of the Ottoman collapse, Balkan Wars, WWI, dynamics of the National
Struggle. To get students to explain well the concepts like revolution and reform. Additionally
to summarize political developments in completed phase of Turkish Revolution and
establishment process of new state, Ataturk Revoluitons in the political and social fields
Learning Outcomes
At the end of this course you will be able to:
1) Acquires a knowledge of the sources belonging to the Principles of Atatürk
2) Apprehends the renovation movements in Ottoman State
3) Apprehends the historical origins of Atatürk?s Principles
4) Understands the state structure of Turkish Republic
5)Apprehends the Turkish case in 21th century
6) To be able to identify historical roots of Turkish Revolution, to claim consciously Ataturk?s
revolutions
7) To be able to interpret by energy which take from Turkish history and Turkish National
Struggle, student claims his state and nation.
Course Contents
Events, thoughts and principles in the rise and development process of Modern Turkey.
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Theoretical Courses Teaching & Learning Methods
1
Content and aim of history of Ataturk
Principles and Revolution - Concepts like
reform
Explaining Method, Questioning Method
2 The structure of Ottoman Empire and its
dissolution reasons - Recovery and
reform efforts in the state Explaining Method, Questioning Method
3
Constitutional development and
intellectual transactions in the state -
The Ottoman geopolitics and foreign
policy
Explaining Method, Questioning Method
4 The administration of CUP and last phase
- WWI and the Ottoman Empire Explaining Method, Questioning Method
5 Mid-Term Exam
6
Mondros Armistice and Occupations,
Paris Peace Conference - National
Independence Determination and
Mustafa Kemal
Explaining Method, Questioning Method
7 Mustafa Kemal?s opinions and his pass
to Anatolia - Period of the Congress Explaining Method, Questioning Method
8 Occupation of Istanbul and reactions -
Opening Turkish Grand National
Assembly (TGNA) and its features Explaining Method, Questioning Method
9
First activities of the TGNA and first
codes - Reactions to TGNA, internal
rebellions, opposite groups, the press in
the National Struggle
Explaining Method, Questioning Method
10 National Struggle Fronts (south and
southeast) - National Struggle Fronts
(east) and the Armenian Question Explaining Method, Questioning Method
11
National Struggle Fronts (west), first
occupations and national army -
Establishment of regular army and
financial sources of the National Struggle
Explaining Method, Questioning Method
12
Treaty of Sevres and its impact on
Turkish Nation - Fronts in the National
Struggle, Inonu I-II, Sakarya and Great
Attack
Explaining Method, Questioning Method
13
Political aspect of National Struggle,
Mudanya Armistice, Lozan Peace
Conference, Foreign policy in the Ataturk
period - Revolutions in the political,
educational, cultural, jurisprudence and
social fields
Explaining Method, Questioning Method
14 Principles of Atatürk (Republicanism,
Nationalism, Populism, Secularism,
Etatism, revolutionism) Explaining Method, Questioning Method
15 Principles of Atatürk (Republicanism,
Nationalism, Populism, Secularism,
Etatism, revolutionism) Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 3 45
Assignments 2 15 30
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 165
Total Work Load / 30 (h) - - 5.5
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title THEORY OF COMPLEX FUNCTIONS I
Course Unit Code MAT 305
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 7
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 5
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course System of complex numbers and constitution of complex functions
Learning Outcomes
At the end of this course you will be able to:
1) Recognize the difference between complex numbers and reel numbers.
2) Understand the cartesian and polar form of complex numbers
3) Integer and rational power of complex numbers
4) Understand the limit, continuity and derivative rules of complex numbers
5) Explain analitic consept
6) Apply properties of basic functions
7) explain properties of complex numbers
Course Contents
Definition of complex numbers, argument of complex numbers, integer and rational powers of
complex numbers, exponential phrases and logarithm, complex and irrational powers of complex
numbers, some basic functions, limit and continuity of complex functions
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Theoretical Courses Teaching & Learning Methods
1 Definition of complex numbers and basic
information Explaining Method, Questioning Method
2 Cartesian and polar form of complex
numbers Explaining Method, Questioning Method
3 Exponential phrases and logarithm Explaining Method, Questioning Method
4 Exponential phrases and logarithm Explaining Method, Questioning Method
5 Mid-Term Exam
6 Complex and irrational powers of complex
numbers Explaining Method, Questioning Method
7 Geometric presentation some sets Explaining Method, Questioning Method
8 Basic topologic consepts in E Explaining Method, Questioning Method
9 Extended complex numbers and Riemann
Sphere Explaining Method, Questioning Method
10 Mid-Term Exam
11 Extended complex numbers and Riemann
Sphere Explaining Method, Questioning Method
12 Some basic Functions Explaining Method, Questioning Method
13 Some basic Functions Explaining Method, Questioning Method
14 Gheometric presentation of complex
functions Explaining Method, Questioning Method
15 Limit and continuity of complex functions Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 3 45
Assignments 2 15 30
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 165
Total Work Load / 30 (h) - - 5.5
ECTS Credit of the Course - - 7
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title COMPUTER PROGRAMMING I
Course Unit Code SMAT 309
Type of Course Unit OPTİONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 5
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 5
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course The aim of this course is to introduce computer programming with a character-based
programming (C/C++) and to give some information about algorithm, codding and the flow
charts.
Learning Outcomes
At the end of this course you will be able to:
1) He / she sees general concepts about computer programming.
2) He/ she has the ability to use the related materials about mathematics, constructed on
competency, achieved in secondary education and also has the further knowledge equipment. 3)He / she understands the logic of creating an algorithm.
4)He/ she follows up the knowledge of mathematics and has the competency of getting across
with his (or her) professional colleagues within a foreign language. 5) He/ she has the knowledge of computer software information as a mathematician needs.
6) He/ she has scientific and ethic assets in the phases of congregating, annotating and
announcing the knowledge about mathematics. 7) He/ she uses the ability of abstract thinking.
Course Contents
Introduction to programming systems, the concept of algorithm, flow charts, the structure of
the program of C++, data types, constants and variables, operators, input and outputs
commands, compare commands, loops, ordering and array concept, defining and using a
function, file operations, classes and introduction of visual programming.
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Theoretical Courses Teaching & Learning Methods
1 Introduction to programming systems
and visual studio environment Explaining Method, Questioning Method
2 The concept of algorithm, flow charts Explaining Method, Questioning Method
3 The structure of the program of C++,
defining a variable Explaining Method, Questioning Method
4 Commands for input and output data Explaining Method, Questioning Method
5 Mid-Term Exam
6 Structural control statements Explaining Method, Questioning Method
7 Loops Explaining Method, Questioning Method
8 Linear Diophantine equations Explaining Method, Questioning Method
9 Orderings and arrays Explaining Method, Questioning Method
10 Two-dimensional arrays (matrices) Explaining Method, Questioning Method
11 To define and to use a function Explaining Method, Questioning Method
12 Classes Explaining Method, Questioning Method
13 Data files Explaining Method, Questioning Method
14 Euler?s Theorem Explaining Method, Questioning Method
15 Files applications Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 3 45
Assignments 2 15 30
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 165
Total Work Load / 30 (h) - - 5.5
ECTS Credit of the Course - - 5
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title NUMBER THEORY I
Course Unit Code MAT 305
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 5
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 5
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course The objective of this course is giving the background of number theory that is connected with
many areas of mathematics.
Learning Outcomes
At the end of this course you will be able to:
1Evaluating the fundamental notions, theories and data with academic methods, he/ she
determines and analyses the encountered problems and subjects, exchanges ideas, improves
suggestions propped up proofs and inquiries..
2) He/ she has the ability to use the related materials about mathematics, constructed on
competency, achieved in secondary education and also has the further knowledge equipment. 3) He/ she has the competency of executing the further studies of undergraduate subjects
independently or with shareholders. 4He/ she follows up the knowledge of mathematics and has the competency of getting across
with his (or her) professional colleagues within a foreign language.
5) He/ she has the knowledge of computer software information as a mathematician needs.
6) He/ she has scientific and ethic assets in the phases of congregating, annotating and
announcing the knowledge about mathematics. 7) He/ she uses the ability of abstract thinking.
Course Contents
Introduction, Divisibility, Prime numbers, The greatest common divisor, Euclidean algorithm, The
fundamental theorem of arithmetics, Linear Diophantine equations, Congruances, Linear
congruances, Chinese Remainder Theorem, Wilson Theorem, Euler?s Theorem, Primitive roots.
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Theoretical Courses Teaching & Learning Methods
1 Introduction Explaining Method, Questioning Method
2 Divisibility Explaining Method, Questioning Method
3 Prime numbers Explaining Method, Questioning Method
4 The greatest common divisor Explaining Method, Questioning Method
5 Mid-Term Exam
6 Euclidean algorithm Explaining Method, Questioning Method
7 The fundamental theorem of arithmetics Explaining Method, Questioning Method
8 Linear Diophantine equations Explaining Method, Questioning Method
9 Congruences Explaining Method, Questioning Method
10 Linear congruences Explaining Method, Questioning Method
11 Linear congruences Explaining Method, Questioning Method
12 Chinese Remainder Theorem Explaining Method, Questioning Method
13 Wilson Theorem Explaining Method, Questioning Method
14 Euler?s Theorem Explaining Method, Questioning Method
15 Primitive roots Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 3 45
Assignments 2 15 30
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 165
Total Work Load / 30 (h) - - 5.5
ECTS Credit of the Course - - 5
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title REAL ANALYSIS
Course Unit Code OMAT 405
Type of Course Unit OPTİONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits Allocated 5
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 4
Semester when the course unit is
delivered 7
Name of Lecturer RESEARCH ASISTAN OF MATHEMATIC DEPARTMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities ANALYSIS I-II-III-IV
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course
The purpose of this course is to teach bases of Real Valuable Function Theory, to recognise
infinite sets, measurable sets, measurable functions and Lebesque integral and to do operation
regarding these.
Learning Outcomes
1)He/She is able to define infinite sets and concept of countable infinity
2) He/She is able to explain limit and densify point, open and closed sets and structure of these
3) He/She is able to calculate measurement of open and closed sets and inside and out
measurement of finite sets
4) He/She is able to understand measurable functions and its properties
5) He/She is able to calculate Lebesque integral of a funtion
6) He/She is able to compare beregnet Lebesque integral with Riemann integral
Course Contents
Algebra, Sigma algebra, measurable sets, measurement of Lebesque, measurable sets,
measurable functions, Lebesque integral of finite and infinite mesurable functions and Compare
Lebesque integral with Riemann integral
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Theoretical Courses Teaching & Learning Methods
1 Infinite sets, Countable infinity, comparing
of sets Telling, explanation and question-answer
2
Point sets, point of limit, open sets, closed
sets and structures of these sets, densify
points
Telling, explanation and question-answer
3 Measurable sets and measurement of open
sets Telling, explanation and question-answer
4
İnside and out measurement of finite sets,
measurable sets and class of measurable
sets
Telling, explanation and question-answer
5 FIRST EXAM
6 Vitali theorem and its results Telling, explanation and question-answer
7 Measurable functions and its properties Telling, explanation and question-answer
8 Measurable function sequences and
convergence in measurement Telling, explanation and question-answer
9 Structure of measurable functions Telling, explanation and question-answer
10 SECOND EXAM
11 Lebesque integral of finite functions Telling, explanation and question-answer
12 Proprties of Lebesque integral Telling, explanation and question-answer
13 Relations of Lebesque integral with
Riemann integral Telling, explanation and question-answer
14 Generating primitive function again Telling, explanation and question-answer
15 FINAL EXAM
16
Recommended or
Required Reading
1] Yıldız, Abdullah; Kevser Özden Reel analiz , I,P.Natanson.tercüme 2005 Yıldız T.Üniversitesi
yayınları.
[2] Reel Analiz, Mustafa Balcı, Ankara, 1988
[3] Reel Analiz, Ali Dönmez, Seçkin, 2001
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 1 10 10
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 7,5 15
Final examination 1 15 15
Total Work Load - - 130
Total Work Load / 30 (h) - - 4,33
ECTS Credit of the Course - - 5
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title TECHNICAL ENGLISH I
Course Unit Code SMAT 305
Type of Course Unit OPTIONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 5
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 5
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course To teach students english used for mathematics and english meanings of mathematical terms
Learning Outcomes
At the end of this course you will be able to:
1) Construct basic english knowledge
2) Understand the difference of technical texts
3) Identify english meanings of mathematical terms.
4) Understand most used templates in articles and issues
5) translate a mathematical text from english to turkish and turkish to english.
Course Contents Translation of technical texts
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Theoretical Courses Teaching & Learning Methods
1 Basic English Knowledge Explaining Method, Questioning Method
2 Basic English Knowledge Explaining Method, Questioning Method
3 Basic English Knowledge Explaining Method, Questioning Method
4 Basic English Knowledge Explaining Method, Questioning Method
5 Mid-Term Exam
6 Basic English Knowledge Explaining Method, Questioning Method
7 Technical English Knowledge Explaining Method, Questioning Method
8 Technical English Knowledge Explaining Method, Questioning Method
9 Technical English Knowledge Explaining Method, Questioning Method
10 Mid-Term Exam
11 Technical English Knowledge Explaining Method, Questioning Method
12 Translation Explaining Method, Questioning Method
13 Translation Explaining Method, Questioning Method
14 Translation Explaining Method, Questioning Method
15 Translation Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading
Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 1 15
Assignments 2 10 20
Project - -
Presentation/ Preparing Seminar - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
- -
Mid-terms 2 7,5 15
Final examination 1 15 15
Total Work Load - - 110
Total Work Load / 30 (h) - - 3.66
ECTS Credit of the Course - - 5
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title VECTORAL ANALYSIS
Course Unit Code SMAT 307
Type of Course Unit OPTIONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 5
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 5
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Examination of the relations between coordinate systems and basic analysis knowledge
Learning Outcomes
At the end of this course you will be able to:
1) Have enough knowledge about coordinate systems
2) Understand rotation of coordinate systems.
3) Learn continuity of vectoral functions and concept of directional derivative
4) Understand gren and stokes theorems
5) Learn Gauss theorem and applying it to differential equations.
6) Comprehend meaning of Gradient and Divergance.
Course Contents
Vectoral algebra, coordinate systems in space, rotation of coordinate systems in plane and space,
vectoral functions and the limit of vectoral functions, continuity and derivative of vectoral
functions, directional derivative, Green theorem, stokes theorem, gauss theorem, differential forms.
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Theoretical Courses Teaching & Learning Methods
1 Vectoral algebra Explaining Method, Questioning Method
2 Coordinate system in space Explaining Method, Questioning Method
3 Rotation of coordinate systems in plane
and space Explaining Method, Questioning Method
4 Equations of plane and straight line Explaining Method, Questioning Method
5 Mid-Term Exam
6 Vectoral functions and their limits Explaining Method, Questioning Method
7 Continuity and derivative in vectoral
functions Explaining Method, Questioning Method
8 Directional derivative Explaining Method, Questioning Method
9 Gradient Explaining Method, Questioning Method
10 Mid-Term Exam
11 Divergance Explaining Method, Questioning Method
12 Green and Stokes Theorems Explaining Method, Questioning Method
13 Conservative fields, Gauss theorem Explaining Method, Questioning Method
14 Applications of Pysical and differential
equations Explaining Method, Questioning Method
15 Differential forms Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 1 15
Assignments 2 10 20
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 125
Total Work Load / 30 (h) - - 4.16
ECTS Credit of the Course - - 5
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title ABSTRACT ALGEBRA II
Course Unit Code MAT 302
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 6
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Helping to learning of the information about ring an structure of ideal
Learning Outcomes
At the end of this course you will be able to:
1) Identify division rings
2) Understand homomorphism, prime and maksimal ideals.
3) Apply isomorphism theorems
4) Identify field extensions and apply them
5) evaluate roots of polinomials
6) Understand transandant numbers
Course Contents
Quotient rings, homeomorphisms in rings, prime and maximal ideals, isomorphism theorems,
polinom rings, prime factorisation, field extensions, algebraic numbers, transendent numbers,
galois hypotesis, roots of polinoms.
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Theoretical Courses Teaching & Learning Methods
1 Quotient rings Explaining Method, Questioning Method
2 Quotient rings Explaining Method, Questioning Method
3 Homeomorphisms in rings Explaining Method, Questioning Method
4 Prime and maximal ideals Explaining Method, Questioning Method
5 Mid-Term Exam
6 Isomorphism theorems Explaining Method, Questioning Method
7 Fields Explaining Method, Questioning Method
8 Polinom rings Explaining Method, Questioning Method
9 Prime factorisation Explaining Method, Questioning Method
10 Mid-Term Exam
11 Field extensions Explaining Method, Questioning Method
12 Algebraic numbers Explaining Method, Questioning Method
13 Transandant numbers Explaining Method, Questioning Method
14 Drawings which can’t make with a
callipers Explaining Method, Questioning Method
15 Galois hypotesis Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 3 45
Assignments 2 15 30
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 165
Total Work Load / 30 (h) - - 5.5
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title PARTIAL DIFFERENTIAL EQUATIONS II
Course Unit Code MAT 408
Type of Course Unit COMPULSORY
Level of Course Unit BACHELOR (FİRST CYCLE)
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 4
Semester when the course unit is
delivered 8
Name of Lecturer
Mode of Delivery FORMAL EDUCATİON
Language of Instruction TURKISH
Prerequisities and co-requisities Differential equation course is recommended.
Recommended Optional
Programme Components NO
Work Placement NO
Objectives of the Course
To solve the partial differential problems arising in science.
Learning Outcomes
1) At the and of this course you will be able to recognize and clasify PDEs
2) At the and of this course you will be able to solve first order linear and nonlinear PDEs.
3) At the and of this course you will be able to clasifie 2nd order PDEs.
4) At the and of this course you will be able to solve second order linear equations.
5) At the and of this course you will be able to obtain solution by reducting canonical form
Course Contents PDEs, first order equations, linear equatios, nonlinear equations, high order equations, linear
second order equations, nonlinear second order equatios, canonical form
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Theoretical Courses Teaching & Learning Methods
1 PDEs TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
2 PDEs TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
3 First order equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
4 First order equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
5 Midterm exam
6 Linear equatios TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
7 Linear equatios TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
8 Nonlinear equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
9 Nonlinear equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
10 Midterm exam
11 High order equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
12 High order equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
13 Linear and nonlinear second order equatios TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
14 Linear and nonlinear second order equatios TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
15 Linear and nonlinear second order equatios TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
16 Final exam
Recommended or
Required Reading
Course notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 20
Project -
Presentation/ Preparing
Seminar -
Quizzes -
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 4 60
Assignments 1 5 5
Project - -
Presentation/ Preparing Seminar - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - -
Mid-terms 2 7.5 15
Final examination 1 15 15
Total Work Load - - 140
Total Work Load / 30 (h) - - 4.66
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 3 3 3 3
LO2 4 4 4 4 4
LO3 5 5 5 5 5
LO4 4 4 4 4 4
LO5 5 5 5 5 5
LO6 2 2 2 2 2
LO7 4 4 4 4 4
LO8 3 3 3 3 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title PRINCIPLES OF ATATÜRK AND HISTORY OF TURKISH REVOLUTION II
Course Unit Code TAR 302
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 2
Theoretical (hour/week) 2
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 5
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course
To criticize the reasons of the Ottoman collapse, Balkan Wars, WWI, dynamics of the National
Struggle. To get students to explain well the concepts like revolution and reform. Additionally
to summarize political developments in completed phase of Turkish Revolution and
establishment process of new state, Ataturk Revoluitons in the political and social fields
Learning Outcomes
At the end of this course you will be able to:
1) Acquires a knowledge of the sources belonging to the Principles of Atatürk
2) Apprehends the renovation movements in Ottoman State
3) Apprehends the historical origins of Atatürk?s Principles
4) Understands the state structure of Turkish Republic
5)Apprehends the Turkish case in 21th century
6) To be able to identify historical roots of Turkish Revolution, to claim consciously Ataturk?s
revolutions
7) To be able to interpret by energy which take from Turkish history and Turkish National
Struggle, student claims his state and nation.
Course Contents
Events, thoughts and principles in the rise and development process of Modern Turkey.
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Theoretical Courses Teaching & Learning Methods
1
Content and aim of history of Ataturk
Principles and Revolution - Concepts like
reform
Explaining Method, Questioning Method
2 The structure of Ottoman Empire and its
dissolution reasons - Recovery and
reform efforts in the state Explaining Method, Questioning Method
3
Constitutional development and
intellectual transactions in the state -
The Ottoman geopolitics and foreign
policy
Explaining Method, Questioning Method
4 The administration of CUP and last phase
- WWI and the Ottoman Empire Explaining Method, Questioning Method
5 Mid-Term Exam
6
Mondros Armistice and Occupations,
Paris Peace Conference - National
Independence Determination and
Mustafa Kemal
Explaining Method, Questioning Method
7 Mustafa Kemal?s opinions and his pass
to Anatolia - Period of the Congress Explaining Method, Questioning Method
8 Occupation of Istanbul and reactions -
Opening Turkish Grand National
Assembly (TGNA) and its features Explaining Method, Questioning Method
9
First activities of the TGNA and first
codes - Reactions to TGNA, internal
rebellions, opposite groups, the press in
the National Struggle
Explaining Method, Questioning Method
10 National Struggle Fronts (south and
southeast) - National Struggle Fronts
(east) and the Armenian Question Explaining Method, Questioning Method
11
National Struggle Fronts (west), first
occupations and national army -
Establishment of regular army and
financial sources of the National Struggle
Explaining Method, Questioning Method
12
Treaty of Sevres and its impact on
Turkish Nation - Fronts in the National
Struggle, Inonu I-II, Sakarya and Great
Attack
Explaining Method, Questioning Method
13
Political aspect of National Struggle,
Mudanya Armistice, Lozan Peace
Conference, Foreign policy in the Ataturk
period - Revolutions in the political,
educational, cultural, jurisprudence and
social fields
Explaining Method, Questioning Method
14 Principles of Atatürk (Republicanism,
Nationalism, Populism, Secularism,
Etatism, revolutionism) Explaining Method, Questioning Method
15 Principles of Atatürk (Republicanism,
Nationalism, Populism, Secularism,
Etatism, revolutionism) Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 3 45
Assignments 2 15 30
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 165
Total Work Load / 30 (h) - - 5.5
ECTS Credit of the Course - - 2
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title THEORY OF COMPLEX FUNCTIONS II
Course Unit Code MAT 306
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 6
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Serial presentation of analytic functions. Evaluation of some complex and real integrals by aid of
residual theorem
Learning Outcomes
At the end of this course you will be able to:
1) Classification of curves.
2) Calculate integrals in complex plane.
3) Explain cauchy integral theorem and its results.
4) Calculate serial expansions of functions around non-analytic points.
5) Classify singular points.
6) Calculate complex integrals with residual theorem.
7) Calculate some real integrals with complex methods.
Course Contents Complex functions, Analytic functions, Curve in complex plane, Line integral, Line integral of
analytic functions, Sequences of complex numbers, Function sequences, Power series
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Theoretical Courses Teaching & Learning Methods
1 Complex functions Explaining Method, Questioning Method
2 Complex functions Explaining Method, Questioning Method
3 Analytic functions Explaining Method, Questioning Method
4 Analytic functions Explaining Method, Questioning Method
5 Mid-Term Exam
6 Curve in complex plane Explaining Method, Questioning Method
7 Line integral Explaining Method, Questioning Method
8 Line integral Explaining Method, Questioning Method
9 Line integral of analytic functions Explaining Method, Questioning Method
10 Mid-Term Exam
11 Sequences of complex numbers Explaining Method, Questioning Method
12 Sequences of complex numbers Explaining Method, Questioning Method
13 Function sequences Explaining Method, Questioning Method
14 Power series Explaining Method, Questioning Method
15 Power series Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 3 45
Assignments 2 15 30
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 165
Total Work Load / 30 (h) - - 5.5
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title COMPUTER PROGRAMMİNG II
Course Unit Code SMAT 304
Type of Course Unit OPTİONAL
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 4
Theoretical (hour/week) 2
Practice (hour/week) 2
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 6
Name of Lecturer
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Teaching the computer programming and showing the importance of using the computer
programming in mathematics.
Learning Outcomes
1.Comprehension the objective of programming
2.To be forming algorithms
3.Coding the algorithms with Basic language
4.To be forming algorithms of arithmetic problems
5.Comprehension the fluence control command
Course Contents Computer programming , Comprehension how is working the computer , Forming algorithms
for some mathematical problems , Coding with the Basic language
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Theoretical Courses Teaching & Learning Methods
1 Logic of programming Telling-explanation and Application
2 Forming algorithms Telling-explanation and Application
3 Fundementals of Basic language Telling-explanation and Application
4 Writing some easy programs in the Basic
language Telling-explanation and Application
5 Midterm exam
6 To codify fundemental mathematic
problems in the Basic language Telling-explanation and Application
7 Fluence controll commands Telling-explanation and Application
8 Control structures Telling-explanation and Application
9 Continue the control structures Telling-explanation and Application
10 Midterm exam
11 Commands Telling-explanation and Application
12 Loops Telling-explanation and Application
13 Sequences Telling-explanation and Application
14 Continue to sequences Telling-explanation and Application
15 Final exam
Recommended or
Required Reading
Lecture notes,Programlama sanatı algoritmalar-Rifat Çölkesen ,Quick Basic ile Bilgisayar Programlama-
Bülent Altunkaynak
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Project
Presentation/ Preparing
Seminar
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15
3
45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15
1
15
Assignments
2
14
28
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms
2
7
14
Final examination
1
14
14
Total Work Load 35 39
116
Total Work Load / 30 (h) - -
3.86
ECTS Credit of the Course - -
4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 4 4 4 5 4 4 5
LO2 4 4 4 5 4 4 5
LO3 4 4 4 5 4 4 5
LO4 4 4 4 5 4 4 5
LO5 4 4 4 5 4 4 5
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title METRIC SPACES
Course Unit Code OMAT310
Type of Course Unit OPTIONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 3
Semester when the course unit is
delivered 6
Name of Lecturer RESEARCH ASSISTANT OF MATHEMATIC DEPARTMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course By using known concepts, analysing about Metric spaces and Topologic spaces and hence
getting backround for Functional Analysis which will be get further.
Learning Outcomes
1)He/She is able to remember concepts which are learned before(Sets, Functions, Continuity
ect)
2)He/She is able to adapt these concepts to Metric spaces, Normed spaces and Topologic spaces
3)He/She is able to make an opinion about distance between any two points
4)He/She is able to define open sets and open sphere
5)He/She is able to realize relations between Metric spaces and general Topologiz spaces
6)He/She is able to adapt a problem in Metric spaces to Topologic spaces
7)He/She is able to have abstract thinking ability
Course Contents
Sets, Functions, Finite sets, Countable sets, Ranking correlation, Absulate value and some
important inequalities, Number sequences, Continuity, Linear spaces, Metric spaces, Normed
spaces, Sub metric spaces and normed sub spaces, Open and closed sets in Metric spaces, Open
and closed sets in Sub metric spaces, Neigbourhood ve aggregation points, equivalent metrics,
Convergene of sequences in Metric spaces, Continuity of functions in Metric spaces,
Convergence and continuity in normed spaces and also introduction to Topologic concepts and
properties of Topologic spaces. W
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Theoretical Courses Teaching & Learning Methods
1
Sets, Functions, Finite sets, Calculable sets
and Ranking correlation, Absolute value
and Some important inequalities
Telling, explanation and question-answer
2 Number sequences, Continuity, Linear
spaces Telling, explanation and question-answer
3 Metric spaces, Normed spaces, Sub metric
spaces and Sub normed spaces Telling, explanation and question-answer
4 Open and closed sets in (X,d) metric space Telling, explanation and question-answer
5 FIRST EXAM
6
Open and closed sets in sub metric spaces,
Contiguities and aggregation points,
Equivalent metric
Telling, explanation and question-answer
7
Convergence of sequences in metric
spaces, Continuity of functions in metric
spaces, Convergence and continuity in
normed spaces
Telling, explanation and question-answer
8 Exact metric spaces Telling, explanation and question-answer
9 Compact metric spaces Telling, explanation and question-answer
10 SECOND EXAM
11 Correlativity, Continuity in correlative
metric spaces Telling, explanation and question-answer
12
Topologic spaces,Inside, out, limit and
aggregation points of a set in topologic
spaces
Telling, explanation and question-answer
13 Convergence and Continuity in topologic
spaces Telling, explanation and question-answer
14 Bases and Contiguities in topologic spaces Telling, explanation and question-answer
15 FINAL EXAM
16
Recommended or
Required Reading
[1] Turgut BAŞKAN, İ. N. CANGÜL, Osman BİZİM, Metrik Uzaylar ve Genel Topolojiye Giriş
Vipaş A.Ş. BURSA, 2000.
[2] “Metrik uzaylar ve topoloji” Seyit Ahmet KILIÇ, Musa ERDEM, Vipaş A.Ş.,BURSA,1999.
[3] “Genel topoloji” Cemil YILDIZ, Kalkan matbaacılık, ANKARA,2002.
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 1 15
Assignments 2 8 16
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 121
Total Work Load / 30 (h) - - 4,03
ECTS Credit of the Course - - 4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title NUMBERS THEORY II
Course Unit Code SMAT 302
Type of Course Unit OPTIONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 6
Name of Lecturer
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Transferring various applications in Number Theory to students
Learning Outcomes
1.Comprehension and apply the Wilson Theorem
2. Comprehension and apply the Fermat theorem
3. Comprehension and apply the Euler theorem
4. Comprehension and apply the special numbers
5.Comprehension the Kriptology
Course Contents
Wilson theorem,Applications of the Wilson theorem,Fermat theorem ,Application of Fermat
theorem,Euler theorem ,Application of Euler theorem,Primitive roots and indexes,Quadratic
residual,Special numbers ,Applications of special numbers,Continuous fractions,Applications
of continuous fractions ,Kriptology theory I , Kriptology theory II. Applications of Kriptology
theory
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Theoretical Courses Teaching & Learning Methods
1 Wilson theorem Telling and explanation
2 Various applications of Wilson theorem Telling and explanation
3 Fermat theorem Telling and explanation
4 Various applications of Fermat theorem Telling and explanation
5 Midterm exam
6 Euler theorem Telling and explanation
7 Various applications of Euler theorem Telling and explanation
8 Primitive roots and indexes Telling and explanation
9 Quadratic residual Telling and explanation
10 Midterm exam
11 Special numbers and their applications Telling and explanation
12 Continuous fractions and their applications Telling and explanation
13 Introduction to Kriptology theory Telling and explanation
14 Applications of Kriptology theory Telling and explanation
15 Final exam
Recommended or
Required Reading
Lecture notes,Soyut cebir ve sayılar teorisi-M.Bayraktar,Sayılar teorisi-H.Hilmi Hacısalihoğlu
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 10
Project
Presentation/ Preparing
Seminar
Mid-terms 2 90
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15
3
45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15
2
30
Assignments
1
10
10
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms
2
15
30
Final examination
1
15
15
Total Work Load 34 45
130
Total Work Load / 30 (h) - -
4.33
ECTS Credit of the Course - -
4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 4 5 5 5 5 4
LO2 4 5 5 5 5 4
LO3 4 5 5 5 5 4
LO4 4 5 5 5 5 4
LO5 4 5 5 5 5 4
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title TECHNİCAL ENGLISH II
Course Unit Code SMAT 308
Type of Course Unit OPTIONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 6
Name of Lecturer
Mode of Delivery FACE TO FACE
Language of Instruction ENGLISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course The purpose is recognition of english terms used in Mathematic and some proper english terms
Learning Outcomes
1.Comprehension the advance level mathematical terms
2. Comprehension the advance level english structures
3.Make translation in basic mathematical disciplines
4.Make translation from English to Turkish
5. Make translation from Turkish to English
Course Contents
Translation of scientific articles from English to Turkish
Translation of technical articles from English to Turkish
Translation of English lecture notes
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Theoretical Courses Teaching & Learning Methods
1 Mathematical terms Telling and explanation
2 Continue to mathematical terms Telling and explanation
3 English patterns Telling and explanation
4 Translation from Abstract algebra Telling and explanation
5 Midterm exam
6 Article translation from Abstract algebra Telling and explanation
7 Translation from the book of Differential
Equations Telling and explanation
8 Article translation related to Differential
Equations Telling and explanation
9 Translation from the book of Differential
Geometry Telling and explanation
10 Midterm exam
11 Article translation related to Differential
Geometry Telling and explanation
12 Translation of Complex Analysis Telling and explanation
13 Translation of Functional Analysis Telling and explanation
14 Translation of Numerical Analysis Telling and explanation
15 Final exam
Recommended or
Required Reading
Lecture notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Project
Presentation/ Preparing
Seminar
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15
3
45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15
1
15
Assignments
2
10
20
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms
2
7,5
15
Final examination
1
15
15
Total Work Load 35 36,5
110
Total Work Load / 30 (h) - -
3.66
ECTS Credit of the Course - -
4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 5 5 4 5
LO2 5 5 4 5
LO3 5 5 4 5
LO4 5 5 4 5
LO5 5 5 4 5
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title INTRODUCTION TO TOPOLOGY II
Course Unit Code MAT 208
Type of Course Unit COMPULSORY
Level of Course Unit FİRST CYCLE
Number of ECTS Credits Allocated 4
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 2
Semester when the course unit is
delivered 4
Name of Lecturer RESEARCH ASSİATANT OF MATHEMATİC DEPARTMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities INTRODUCTION TO TOPOLOGY I
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course
The aim of this course is to give the fundamental concepts of topology and the methods of
proof. Besides, the other aims are to discuss the advanced topological concepts, to discover the
relations between topology and the other disciplines and to learn topics about compact spaces,
local compact spaces, connected spaces, separation axioms convergence, countability.
Learning Outcomes
1) He/She is able to define compactness in topologic space,
2) He/She is able to compare the compactness in classical analysis with compactness in
topologic space,
3) He/She is able to prove fundamental theorems in compact topologic space,
4) He/She is able to define countable compactness and sequentially compactness,
5) He/She is able to prove the theorems related to countable compactness and sequentially
compactness,
6) He/She is able to define the concepts of the connected spaces,
7) He/She is able to solve the problems by the aid of the concepts of the connected spaces
8) He/She is able to classify topologic spaces,
Course Contents Compact spaces, local compact spaces, sequentially compactness, countable compactness,
connected spaces, separation axioms, convergence, countability.
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Theoretical Courses Teaching & Learning Methods
1 Compact topological spaces [1] Pages 89-107
2 Local compact spaces [1] Pages 107-109
3 Compactness [1] Pages 109-112
4 Countable compactness, sequentially
compactness [1] Pages 112-120
5 FIRST EXAM
6 Connected spaces [1] Pages 120-126
7 Connectedness on the reel line, some
applications of connected spaces [1] Pages 126-131
8 Local connected spaces [1] Pages 131-139
9 Separation Axioms,T0-spaces, T1-spaces [1] Pages 139-143
10 SECOND EXAM
11 Regular spaces and T3-spaces [1] Pages 143-145
12 Normal spaces and T4-spaces [1] Pages 145-152
13 Urysohn Lemma, Tietze Extension
Theorem [1] Pages 152-157
14 Convergence, nets, subnets, convergence
of nets [1] Pages 157-170
15 FINAL EXAM
16
Recommended or
Required Reading
1] Gürkanlı A. Turan, Genel Topoloji, Samsun, 1993.
[2] Lipschutz, S., General Topology, Schaum Publishing Co., 1965
[3] Özdamar, E., Görgülü A., Alp, A., Genel topoloji, Uludağ Üni. Yayınları, 1999.
[4] Aslım, G., Genel topoloji, İzmir, Ege Üniversitesi, 1988
[1] Gürkanlı A. Turan, Genel Topoloji, Samsun, 1993.
[2] Lipschutz, S., General Topology, Schaum Publishing Co., 1965
[3] Özdamar, E., Görgülü A., Alp, A., Genel topoloji, Uludağ Üni. Yayınları, 1999.
[4] Aslım, G., Genel topoloji, İzmir, Ege Üniversitesi, 1988
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 2 4 8
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 10 20
Final examination 1 10 10
Total Work Load - - 128
Total Work Load / 30 (h) - - 4,26
ECTS Credit of the Course - - 4
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 4 3 3 5
LO2 4 3 3 5
LO3 4 3 3 5
LO4 4 3 3 5
LO5 4 3 3 5
LO6 4 3 3 5
LO7 4 3 3 5
LO8 4 3 3 5
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title COMPLEX ANALYSIS I
Course Unit Code MAT 401
Type of Course Unit Compulsory
Level of Course Unit Bachelor (First Cycle)
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 4
Semester when the course unit is
delivered 7
Name of Lecturer
Mode of Delivery FORMAL EDUCATION
Language of Instruction TURKISH
Prerequisities and co-requisities Advised to take the Analysis IV
Recommended Optional
Programme Components NO
Work Placement NO
Objectives of the Course
To introduce Complex numbers, their notations and properties and introduction of the complex
functions theory. The conceptions of limit,continuity,complex differentation and entire
functions and theorems related with these and applications.Complex sequences and series.
Fundamental functions and to analysis their properties.
Learning Outcomes
1.At the and of this course you will be able to define Complex numbers
2. At the and of this course you will be able to define topology of the complex plane
3.At the and of this course you will be able to define Complex sequences and series
4. At the and of this course you will be able to define complex functions,limit,continuity and
derivative of these functions
5. At the and of this course you will be able to define ,Cauchy-Riemann equations
Course Contents
Complex numbers,topology of the complex plane,Complex sequences and series,complex
functions,limit,continuity and derivative of these functions,Cauchy-Riemann equations,Entire
functions,Exponential, logarithmic,trigonometric and hyperbolic functions.
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Theoretical Courses Teaching & Learning Methods
1 Complex numbers TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
2 Topology of the complex plane TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
3 Topology of the complex plane TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
4 Complex sequences and series TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
5 Midterm Exam
6 Complex sequences and series TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
7 Complex functions TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
8 Complex Limit TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
9 Complex continuity TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
10 Midterm Exam
11 Cauchy-Riemann equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
12 Exponential functions TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
13 Trigonometric and hyperbolic functions TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
14 Trigonometric and hyperbolic functions TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
15 Trigonometric and hyperbolic functions TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
16 Final Exam
Recommended or
Required Reading
1.R.V.Churchill and J.W.Brown, Complex Variables and Applications, McGraw-Hill Series in Higher
Mathematics, New York, 1990.
2.M.R.Spiegel,Complex Variables, Schaum’s Outline Series in Mathematics-Statistics, McGraw-Hill
Series, New York, 1964.
3.R.P.Boas, Invitation to Complex Analysis, The Random House, New York,.1987,
4.A.Kaya, Karmaşık Degişkenler ve Uygulamalar, çeviri: R.VChurchill, Milli Eğitim Bakanlığı
Yayınları, İstanbul, 1989.
5.T.Başkan, Kompleks Fonksiyonlar Teorisi, Vipaş A.Ş., Yayın sıra no:38, Dördüncü Baskı, Bursa,
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 5 20
Project -
Presentation/ Preparing
Seminar -
Quizzes -
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 5 10 50
Project - -
Presentation/ Preparing Seminar - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - -
Mid-terms 2 7.5 15
Final examination 1 15 15
Total Work Load - - 170
Total Work Load / 30 (h) - - 5.66
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 3 3 3 3
LO2 4 4 4 4 4
LO3 5 5 5 5 5
LO4 2 2 2 2 2
LO5 4 4 4 4 4
LO6 5 5 5 5 5
LO7 3 3 3 3 3
LO8 3 3 3 3 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title DIFFERENTIAL GEOMETRY
Course Unit Code MAT 307
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 5
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course The goal of this lesson is to develop knowledge about differential geometry of eager students.
Learning Outcomes
At the end of this course you will be able to:
1) Identify afine space, topological space and metric space concepts
2) Construct a jacobian matrice
3) Identify frenet vectoral spaces, oscilator, normal rectifian planes
4) Identify curvature sphere, tangent space, vector fields and cotangent space
5) Understand directional derivative, covariant derivative and apply
6)Identify gradient functions, divergance functions and rotational functions
Course Contents
Affine space, Euclides space, Topological space, metric space
Jacobian matrice and differentiable functions, Curves theorem, frenet vector spaces
Oscillator, normal and rectifian planes, Curvatures of curves, curvature circle
Curvature sphere, Tangent spaces, cotangent spaces, Directional derivative, covariant derivative
Gradient functions, divergance function, Rotational functions, Convection forms, structure
equations
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Theoretical Courses Teaching & Learning Methods
1 Affine space Explaining Method, Questioning Method
2 Euclides space Explaining Method, Questioning Method
3 Topological space, metric space Explaining Method, Questioning Method
4 Jacobian matrice and differentiable
functions Explaining Method, Questioning Method
5 Mid-Term Exam
6 Curves theorem, frenet vector spaces Explaining Method, Questioning Method
7 Oscillator, normal and rectifian planes Explaining Method, Questioning Method
8 Curvatures of curves, curvature circle Explaining Method, Questioning Method
9 Curvature sphere Explaining Method, Questioning Method
10 Mid-Term Exam
11 Tangent spaces, cotangent spaces Explaining Method, Questioning Method
12 Directional derivative, covariant derivative Explaining Method, Questioning Method
13 Gradient functions, divergance function Explaining Method, Questioning Method
14 Rotational functions Explaining Method, Questioning Method
15 Convection forms, structure equations Explaining Method, Questioning Method
16 Final Exam
Recommended or Lecture Notes
Required Reading
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 2 15 30
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 165
Total Work Load / 30 (h) - - 5,5
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title FUNCTIONAL ANALYSIS I
Course Unit Code MAT 405
Type of Course Unit COMPULSORY
Level of Course Unit BACHELOR (FİRST CYCLE)
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 4
Semester when the course unit is
delivered 7
Name of Lecturer
Mode of Delivery FORMAL EDUCATİON
Language of Instruction TURKISH
Prerequisities and co-requisities Mathematical analysis I, II, III and IV should be taken.
Recommended Optional
Programme Components NO
Work Placement NO
Objectives of the Course To teach the notions of metric spaces. To introduce vector sapces, normed vector spaces,
Banach spaces, inner product spaces and Hilbert spaces. To teach their properties.
Learning Outcomes
1. At the and of this course you will be able to learn metric spaces, convergence, Cauchy
sequence, completeness. At the and of this course you will be able to understand the
completion of metric spaces and the seperability.
2. At the and of this course you will be able to understand vector spaces, normed vector spaces,
inner product spaces and Hilbert spaces with their basic properties.
3. At the and of this course you will be able to have knowledge about the completion of normed
spaces, complete and uncomplete normed spaces.
4. At the and of this course you will be able to prove the theorem related to Cauchy Schwarz
inequality, the notion of orthogonality and orthonormal sets.
5. At the and of this course you will be able to prove some theorem on approximation in Hilbert
spaces, and investigates the application areas of these theorems.
6. At the and of this course you will be able to understand the relations between these spaces.
Course Contents Metric spaces. Vector spaces. Normed vector spaces. Banach spaces. Inner product and Hilbert
sapces. Basic properties of these spaces.
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Theoretical Courses Teaching & Learning Methods
1 Vector spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
2
Metric spaces
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
3
Metric spaces
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
4 Normed vector spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
5 Midterm exam
6 Banach spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
7 Banach spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
8 Inner product TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
9 Hilbert spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
10 Midterm exam
11 Hilbert spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
12 Dual spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
13 Basic properties of these spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
14 Basic properties of these spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
15 Basic properties of these spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
16 Final exam
Recommended or
Required Reading
“Fonksiyonel Analiz” Mustafa Bayraktar, Erzurum,1996
“Fonksiyonel Analiz” Binali Musayev ve Murat Alp, Balcı yayınları, 2000
“Fonksiyonel Analiz” Seyit Ahmet Kılıç,
Functional Analysis with applications” B. Choudhary and S. Nanda, Willey Eastern limited,19991.
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 20
Project -
Presentation/ Preparing
Seminar -
Quizzes -
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 4 60
Assignments 1 20 20
Project - -
Presentation/ Preparing Seminar - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - -
Mid-terms 2 15 30
Final examination 1 30 30
Total Work Load - - 185
Total Work Load / 30 (h) - - 6.16
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 3 3 3 3
LO2 4 4 4 4 4
LO3 5 5 5 5 5
LO4 2 2 2 2 2
LO5 4 4 4 4 4
LO6 5 5 5 5 5
LO7 3 3 3 3 3
LO8 3 3 3 3 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title NUMERICAL ANALYSIS I
Course Unit Code OMAT 403
Type of Course Unit OPTİONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 4
Semester when the course unit is
delivered 7
Name of Lecturer RESEARCH ASSISTANT OF MATHEMATIC DEPARMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities ANALYSIS I-II-III-IV, LİNEAR ALGEBRA I-II, COMPUTER PROGRAMME
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course The aim of this course to introduce basic numerical methods which are used in some places of
Mathematic
Learning Outcomes
1)He/She is able to understand numerical methods for non-linear equations systems
2) He/She is able to understand numerical methods for eiagen vector and eiagen value problems
3) He/She is able to get a new outlook
4) He/She is able to learn to solve problems by means of different methods
5) He/She is able to use computer more effectively in Mathematic
Course Contents
Numerical methods for non-linear equations and equation systems, Solutions of linear equation
systems directly and by using consecutive methods, Numerical methods for eaigen vector and
eiagen value problems.
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Theoretical Courses Teaching & Learning Methods
1 Errors and Computer Arithmetic Telling, explanation and question-answer
2 Numerical methods for non-linear
equations: Fixed point Iteration Telling, explanation and question-answer
3
Numerical methods for non-linear
equations: Newton method and
convergence
Telling, explanation and question-answer
4 Numerical methods for non-linear
equations: Regula Falsi method Telling, explanation and question-answer
5 FIRST EXAM
6 Numerical methods for non-linear
equations: Bisection method Telling, explanation and question-answer
7 Newton and simple Iteration for solution of
non-linear equations systems Telling, explanation and question-answer
8
Linear equations systems: Gauss
Elimination Method and Gauss Jordan
Method
Telling, explanation and question-answer
9 Linear equation systems: LU
decomposition method Telling, explanation and question-answer
10 SECOND EXAM
11 Consecutive methods for linear equation
systems: Jacobi method Telling, explanation and question-answer
12 Consecutive methods for linear equation
systems: Gauss -Siedel method Telling, explanation and question-answer
13 Chracteristic value problems: Faddiev-
Leverrier method Telling, explanation and question-answer
14 Chracteristic value problems: Vianello
iterative approximation method Telling, explanation and question-answer
15 FINAL EXAM
16
Recommended or
Required Reading
[1]Applied Numerical Analysis, Curtis F. ,Patrick O. Wheatly, Addison-Wesley Publishing Company,
Canada,1984.
[2]Fen ve Mühendislik için Nümerik Analiz,Doç.Dr. Mustafa Bayram,Aktif Yayınevi, 2002,İstanbul
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 3 45
Assignments 1 10 10
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
- - -
Mid-terms 2 7,5 15
Final examination 1 15 15
Total Work Load - - 130
Total Work Load / 30 (h) - - 4.33
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title APPLIED MATHEMATICS
Course Unit Code MAT 403
Type of Course Unit Compulsory
Level of Course Unit Bachelor (First Cycle)
Number of ECTS Credits Allocated 6
Theoretical (hour/week) -
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 4
Semester when the course unit is
delivered 7
Name of Lecturer
Mode of Delivery FORMAL EDUCATION
Language of Instruction TURKISH
Prerequisities and co-requisities NO
Recommended Optional
Programme Components NO
Work Placement NO
Objectives of the Course
Provide information about the main application areas of mathematics, to develop new
mathematical models and methods of broad utility to science and engineering; and
to make fundamental advances in the mathematical and physical sciences themselves
Learning Outcomes
1.At the and of this course you will be able to define Laplace and inverse Laplace
transformation
2.At the and of this course you will be able to apply characteristic of Laplace and inverse
Laplace transformation to diferensiel equations
3.At the and of this course you will be able to do mass accounts with the help of multi-storey
integrals
4. At the and of this course you will be able to use Guldin theorems and its applications
5. At the and of this course you will be able to use Fourier series and its applications
Course Contents
Definition of the Laplace and inverse Laplace transformation , its characteristics, its
applications to the diferensiel equations,work account making in the force fields,mass with the
help of multi-storey integrals, finding moment of the center of gravity and inaction, Guldin
theorems and its applications, Fourier series and its applications
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Theoretical Courses Teaching & Learning Methods
1 Definition of the Laplace and inverse
Laplace transformation
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
2 Definition of the Laplace and inverse
Laplace transformation
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
3 Characteristics of the Laplace and inverse
Laplace transformation
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
4 Characteristics of the Laplace and inverse
Laplace transformation
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
5 MİDTERM EXAM
6
Application of the Laplace and inverse
Laplace transformations to the diferensiel
equations
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
7
Application of the Laplace and inverse
Laplace transformations to the diferensiel
equations
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
8 Work account making in the force fields TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
9 Work account making in the force fields TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
10 MİDTERM EXAM
11
Mass with the help of multi-storey
integrals, finding moment of the center of
gravity and inaction
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
12 Finding moment of the center of gravity
and inaction,
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
13 Guldin theorems and its applications TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
14 Fourier series and its applications TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
15 Fourier series and its applications TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
16 FİNAL EXAM
Recommended or
Required Reading
A. Altın, Uygulamalı Matematik Ders Notları
B.İ. Yaşar, Uygulamalı Matematik
M.R. Spiegel, Laplace Transforms (Schaum's Outline Series)
E. Altan, Yüksek Matematiğe Giriş I ve II
E. C. Young, Vector and Tensor Analysis
N. Piskunov, Differential and Integral Calculus
B.M.Budak-S.V.Fomin, Multiple Integrals Field Theory and Series
M. R. Spiegel, Advanced Calculus (Schaum's Outline Series)
B. J. Rice, Applied Analysis for Physics and Engineers
C.R.Wylie, Advanced Engineering Mathematics
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 20
Project -
Presentation/ Preparing
Seminar -
Quizzes -
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 1 15 15
Project - -
Presentation/ Preparing Seminar - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - -
Mid-terms 2 7.5 15
Final examination 1 15 15
Total Work Load - - 135
Total Work Load / 30 (h) - - 4.5
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 3 3 3 3
LO2 4 4 4 4 4
LO3 5 5 5 5 5
LO4 2 2 2 2 2
LO5 5 5 5 5 5
LO6 2 2 2 2 2
LO7 4 4 4 4 4
LO8 3 3 3 3 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title BOUNDARY VALUE PROBLEMS
Course Unit Code OMAT 401
Type of Course Unit OPTİONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 4
Semester when the course unit is
delivered 7
Name of Lecturer RESEARCH ASSISTANT OF MATHEMATIC DEPARTMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Creating backround for Initial and Boundary Value Problems
Learning Outcomes
1)He/She is able to know Initial and Boundary Value Problems
2) He/She is able to know Basis existence and unique Theorem for Boundary Value Problems
3) He/She is able to relaise Initial Value Problems
4) He/She is able to attain knowledge abour Sturm Theory and Sturm Lioville Problem
5) He/She is able to make expansion of a function in terms of sequences of Orthogonal
Functions
Course Contents
Initial Value Problems, Existence and Uniques for Initial Value Problems, Boundary Value
Problems of second digit and some existence Theorems, Sturm Theory, Sturm Lioville
Problem, Orthogonal of characteristic functions, Expansion of a function in terms of sequences
of Orthonormal functions.
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Theoretical Courses Teaching & Learning Methods
1 Initial Value Problems Telling, explanation and question-answer
2 Initial Value Problems Telling, explanation and question-answer
3 Basis existence and unique Theorem for
Initial Value Problems Telling, explanation and question-answer
4 Basis existence and unique Theorem for
Initial Value Problems Telling, explanation and question-answer
5 FIRST EXAM
6 Sturm Theory Telling, explanation and question-answer
7 Sturm Theory Telling, explanation and question-answer
8 Sturm Lioville Problem Telling, explanation and question-answer
9 Sturm Lioville Problem Telling, explanation and question-answer
10 SECOND EXAM
11 Orthogonal of characteristic functions Telling, explanation and question-answer
12 Orthogonal of characteristic functions Telling, explanation and question-answer
13 Expansion of a function in terms of
sequences of Orthonormal functions. Telling, explanation and question-answer
14 Expansion of a function in terms of
sequences of Orthonormal functions. Telling, explanation and question-answer
15 FINAL EXAM
16
Recommended or
Required Reading
1] S. L. Ross, Differential Equations, John Wiley, New York, 1974.
[2] W. Boyce and R. Diprima, Elementary Differential Equations and Boundary Value Problems, Wiley,
New York, 1969.
[3] P. B: Bailey, L. F. Shampine and P. E. Waltman, Nonlinear Two Point Boundary Value Problems,
Academic Pres, New York, 1968.
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 3 45
Assignments 1 10 10
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
- - -
Mid-terms 2 7,5 15
Final examination 1 15 15
Total Work Load - - 130
Total Work Load / 30 (h) - - 4.33
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title FOURIER ANALYSES
Course Unit Code SMAT 203
Type of Course Unit OPTIONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 2
Semester when the course unit is
delivered 3
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Explain and understand properties of fourier sequences and series
Learning Outcomes
At the end of this course you will be able to:
1) Identify iner product spaces
2) Calculate the norm of a function
3) Understand fourier series and basic properties
4) Practice with fourier series
5) Calculate fourier integral
6) Understand the application areas of fourier analysis
Course Contents
Basic information, Inner product spaces, Norm of a function
Sets of orthogonal functions, Fourier series, Convergence of fourier series
Calculation of fourier series, Various fourier series, Various fourier series
Convergence properties, Perseval equation, Some convergence theorems, Applications of fourier
integrals
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Theoretical Courses Teaching & Learning Methods
1 Basic information Explaining Method, Questioning Method
2 Inner product spaces Explaining Method, Questioning Method
3 Norm of a function Explaining Method, Questioning Method
4 Sets of orthogonal functions Explaining Method, Questioning Method
5 Mid-Term Exam
6 Fourier series Explaining Method, Questioning Method
7 Convergence of fourier series Explaining Method, Questioning Method
8 Calculation of fourier series Explaining Method, Questioning Method
9 Various fourier series Explaining Method, Questioning Method
10 Mid-Term Exam
11 Various fourier series Explaining Method, Questioning Method
12 Convergence properties Explaining Method, Questioning Method
13 Perseval equation Explaining Method, Questioning Method
14 Some convergence theorems Explaining Method, Questioning Method
15 Applications of fourier integrals Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
1 10 10
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
- -
Assignments - -
Project - -
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 7,5 15
Final examination 1 15 15
Total Work Load - - 130
Total Work Load / 30 (h) 4.33
ECTS Credit of the Course 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title Integral Equations
Course Unit Code OMAT 405
Type of Course Unit OPTİONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 4
Semester when the course unit is
delivered 7
Name of Lecturer RESEARCH ASSISTANT OF MATHEMATIC DEPARMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course Teach Basic Theory of Integral Equation,method of Solutions and Applications of Integral Equations.
Learning Outcomes
1) Demonstrate basic knowledge of Mathematics, its scope, application, history,
problems, methods, and usefulness to mankind both as a science and as an
intellectual discipline
2) Relate mathematics to other disciplines and develop mathematical models for
multidisciplinary problems
3)Continuously develop their knowledge and skills in order to adapt to a rapidly
developing technological environment
4)Develop mathematical, communicative, problem-solving, brainstorming skills.
5)Demonstrate sufficiency in English to follow literature, present technical
projects and write articles.
Course Contents
Linear Integral Equations
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Theoretical Courses Teaching & Learning Methods
1 Fredholm equations. Concept of integral equations.
Telling, explanation and question-answer
2
Fredholm operator and its degree. Iterated kernel. Method of successive approximations.
Telling, explanation and question-answer
3
Volterra equation. Concept of resolvent. Integral equations with degenerated kernels.
Telling, explanation and question-answer
4
General case of Fredholm equation. Conjugate Fredholm equation. Fredholm theorems. Resolvent. The case of several independent variables.
Telling, explanation and question-answer
5 FIRST EXAM
6
The case of several independent variables. Equations with weak singularity. Continuous solutions of integral equations.
Telling, explanation and question-answer
7 Riesz-Schauder equations. Telling, explanation and question-answer
8
Method of successive approximations for equations with conjugate bounded operators. Completely continuous operators.
Telling, explanation and question-answer
9
Solution of Riesz-Schauder equations. Extension of Fredholm theorems. Symmetric integral equations. Symmetric kernels. Fundamental theorems on symmetric equations.
Telling, explanation and question-answer
10
Theorem on existence of a characteristic constant. Hilbert-Schmidt theorem. Solution of symmetric integral equations
Telling, explanation and question-answer
11 Bilinear series. Telling, explanation and question-answer
12 Boundary value problem for an ordinary differential equation.
Telling, explanation and question-answer
13
Boundary value problem for an ordinary differential equation. Characteristic constants and proper functions of an ordinary differential operator. Proof the Fourier method
Telling, explanation and question-answer
14
. Green function for the Laplace operator. Proper functions of the problem on vibrations of a membrane.
Telling, explanation and question-answer
15 FINAL EXAM
16
Recommended or
Required Reading
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 1 10 10
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 7,5 15
Final examination 1 15 15
Total Work Load - - 130
Total Work Load / 30 (h) - - 4,33
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title PLANE GEOMETRY I
Course Unit Code OMAT 407
Type of Course Unit OPTİONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 4
Semester when the course unit is
delivered 7
Name of Lecturer RESEARCH ASSISTANT OF MATHEMATIC DEPARMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course İntroducing basic concepts of Geometry and investigating special Theorems
Learning Outcomes
1)He/She is able to remember basic concepts of Geometry
2) He/She is able to learn Thales’s relations, Save’s Theorem and Menalaüs’s Theorem
3) He/She is able to undestand the relations of bisecting angle and median and Theorems of
bisecting angle and median
4) He/She is able to learn the properties of right trianle, isosceles triangle, equilateral triangle
and Pythagoras’s Theorem
5) ) He/She is able to understand area in trianle and circle-area relations of trianle
Course Contents
Basic concepts, angles , triangles, Thales’s relations, Save’s Theorem, Memalaüs’s Theorem,
median relations in triangle, the theorem of median, bisecting angle and its relations in triangle,
theorem of internal bisecting angle, triangles with respect to angles, triangles with respect to
sides, right trianle, isosceles triangle, equilateral triangle, Pythagoras’s Theorem, Ökhlid’s
relations, isosceles right triangle, area in triangle, circle-area relations in triangle.
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Theoretical Courses Teaching & Learning Methods
1 Basic concept and angles Telling, explanation and question-answer
2 Thales’ relations, Save’s theorem and
Menalaüs’s theorem Telling, explanation and question-answer
3 Median relations and theorem of median in
triangle Telling, explanation and question-answer
4 Bisecting angle relations and theorem of
bisecting triangle Telling, explanation and question-answer
5 FIRST EXAM
6 Theorem of internal bisecting angle and its
application in triangle Telling, explanation and question-answer
7 Triangles with respect to angles and
Triangles with respect to sides Telling, explanation and question-answer
8 Right trianle, isosceles triangle and
equilateral triangle Telling, explanation and question-answer
9 Pythagoras’s Theorem Telling, explanation and question-answer
10 SECOND EXAM
11 Ökhlid’s relation Telling, explanation and question-answer
12 Area of triangle and its applications Telling, explanation and question-answer
13 Circle of triangle and its applications Telling, explanation and question-answer
14 Circle-area relation of triangle Telling, explanation and question-answer
15 FINAL EXAM
16
Recommended or
Required Reading
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 1 10 10
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 7,5 15
Final examination 1 15 15
Total Work Load - - 130
Total Work Load / 30 (h) - - 4,33
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title COMPLEX ANALYSIS II
Course Unit Code MAT 402
Type of Course Unit COMPULSORY
Level of Course Unit BACHELOR (FİRST CYCLE)
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 4
Semester when the course unit is
delivered 8
Name of Lecturer
Mode of Delivery FORMAL EDUCATION
Language of Instruction TURKİSH
Prerequisities and co-requisities Advised to take the Complex Analysis I
Recommended Optional
Programme Components NO
Work Placement NO
Objectives of the Course
To give a perspective on the topics of Integrations on complex plane,Complex power series,
Taylor and Laurent series,Classification of the singular points and Residue theorem, Calculation
of some real integrals with complex methods,The Argument principle
Learning Outcomes
1) At the and of this course you will be able to categorize the curves.
2 At the and of this course you will be able to calculate integral on complex plane.
3) At the and of this course you will be able to interpret the Cauchy-integral theorem and its
corollories.
4) At the and of this course you will be able to calculate serial expansions of functions
5) At the and of this course you will be able to categorize the singular points
6) At the and of this course you will be able to calculate the complex integrals by using Residue
theorem. with complex methods
7) At the and of this course you will be able to calculate the some real integrals by applying
complex methods.
Course Contents
Integration on complex plane, Complex power series, Taylor and Laurent series, classification
of the singular points and Residue theorem, Calculation of some real integrals with complex
methods,The Argument principle.
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Theoretical Courses Teaching & Learning Methods
1 Integration on complex plane TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
2 Integration on complex plane TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
3 Complex power series TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
4 Complex power series TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
5 Midterm Exam
6 Taylor and Laurent series TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
7 Taylor and Laurent series TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
8 Classification of the singular points and
Residue theorem
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
9 Classification of the singular points and
Residue theorem
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
10 Midterm Exam
11 Calculation of some real integrals with
complex methods
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
12 Calculation of some real integrals with
complex methods
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
13 The Argument principle TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
14 The Argument principle TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
15 The Argument principle TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
16 Final Exam
Recommended or
Required Reading
1.R.V.Churchill and J.W.Brown, Complex Variables and Applications ,McGraw-Hill Series in Higher
Mathematics, New York,1990.
2.M.R.Spiegel, Complex Variables, Schaum’s Outline Series in Mathematics-Statistics, McGraw-Hill
Series, New York, 1964.
3.R.P.Boas, Invitation to Complex Analysis, The Random House, New York,.1987,
4.A.Kaya, Karmaşık Degişkenler ve Uygulamalar, çeviri:R.VChurchill, Milli Eğitim Bakanlığı Yayınları,
İstanbul, 1989. 5.T.Başkan, Kompleks Fonksiyonlar Teorisi, Vipaş A.Ş., Yayın sıra no:38, Dördüncü Baskı, Bursa, 2000.
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 5 20
Project -
Presentation/ Preparing
Seminar -
Quizzes -
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 5 10 50
Project - -
Presentation/ Preparing Seminar - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - -
Mid-terms 2 7.5 15
Final examination 1 15 15
Total Work Load - - 170
Total Work Load / 30 (h) - - 5.66
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 3 3 3 3
LO2 4 4 4 4 4
LO3 5 5 5 5 5
LO4 2 2 2 2 2
LO5 4 4 4 4 4
LO6 5 5 5 5 5
LO7 3 3 3 3 3
LO8 3 3 3 3 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title DIFFERENTIAL GEOMETRY II
Course Unit Code MAT 308
Type of Course Unit COMPULSORY
Level of Course Unit FIRST CYCLE
Number of ECTS Credits
Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 3
Semester when the course unit is
delivered 5
Name of Lecturer
Mode of Delivery (Face-To-Face,
Distance Learning) FACE-TO-FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course The goal of this lesson is to develop knowledge about differential geometry of eager students.
Learning Outcomes
At the end of this course you will be able to:
1) Define the concept of the curve,
2) Construct the Frenet frame of the curve,
3) Formulate the curvatures of the curve,
4) Categorize the tangent spaces at a point of the curve,
5) Calculate algebraic invariants of the curve,
6) Define and characterizes the types of the curves,
7) Cefine surfaces and hypersurfaces,
8) Calculate algebraic invariants of the surface,
Course Contents
Affine space, Euclides space, Topological space, metric space
Jacobian matrice and differentiable functions, Curves theorem, frenet vector spaces
Oscillator, normal and rectifian planes, Curvatures of curves, curvature circle
Curvature sphere, Tangent spaces, cotangent spaces, Directional derivative, covariant derivative
Gradient functions, divergance function, Rotational functions, Convection forms, structure
equations
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Theoretical Courses Teaching & Learning Methods
1 Surfaces , parametric curves of surface Explaining Method, Questioning Method
2 Tangent space of curve Explaining Method, Questioning Method
3 Differentiable function Explaining Method, Questioning Method
4 Directional derivative, vector field,
covariant derivative Explaining Method, Questioning Method
5 Mid-Term Exam
6 Gauss curvature and mean curvature Explaining Method, Questioning Method
7 Gauss curvature and mean curvature Explaining Method, Questioning Method
8 Planar and umbilic point Explaining Method, Questioning Method
9 Basic forms Explaining Method, Questioning Method
10 Mid-Term Exam
11 Gauss transform Explaining Method, Questioning Method
12 Metric and integral above surface Explaining Method, Questioning Method
13 Asymptotic and geodesic curve Explaining Method, Questioning Method
14 Congruent curves Explaining Method, Questioning Method
15 Congruent curves Explaining Method, Questioning Method
16 Final Exam
Recommended or
Required Reading Lecture Notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 2 20
Mid-terms 2 80
Total 100
Contribution of Term (Year)
Learning Activities to Success
Grade
2 50
Contribution of Final Exam to
Success Grade 1 50
Total 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours)
15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading)
15 3 45
Assignments 2 15 30
Project
Presentation/ Preparing Seminar
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation)
Mid-terms 2 15 30
Final examination 1 15 15
Total Work Load - - 165
Total Work Load / 30 (h) - - 5.5
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title FUNCTIONAL ANALYSIS II
Course Unit Code MAT 406
Type of Course Unit COMPULSORY
Level of Course Unit BACHELOR (FİRST CYCLE)
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 4
Semester when the course unit is
delivered 8
Name of Lecturer
Mode of Delivery FORMAL EDUCATİON
Language of Instruction TURKISH
Prerequisities and co-requisities Functional analysis I should be taken.
Recommended Optional
Programme Components NO
Work Placement NO
Objectives of the Course
To teach the notions of operator theory. To transform a given problem to an operator equation.
To investigate existance, uniqueness and stability of the solution of an operator equation.
Classification of operators. To analyse the solution methods
Learning Outcomes
1) At the and of this course you will be able to distinguish linear and nonlinear operators.
2) At the and of this course you will be able to learn the classifications such as the concepts for
an operator of being bounded, continuous and compact.
3) At the and of this course you will be able to understand the solution of an operator equation.
4) At the and of this course you will be able to evaluate the solutions of integral equations,
differential equations and algebraic equations.
5) At the and of this course you will be able to understand the advantages of Hilbert spaces for
operators by using the properties of Hilbert spaces.
Course Contents Linear spaces. Dual spaces. Adjoint operators. Compact sets. Compact linear operator. Hilbert
adjoint operators on Hilbert spaces. The notions of spectrum and resolvant.
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Theoretical Courses Teaching & Learning Methods
1 Linear spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
2 Linear spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
3 Dual spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
4 Dual spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
5 Midterm Exam
6 Adjoint operators TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
7 Adjoint operators TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
8 Compact sets TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
9 Compact sets TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
10 Midterm Exam
11 Compact linear operator TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
12 Compact linear operator TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
13 Hilbert adjoint operators on Hilbert spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
14 Hilbert adjoint operators on Hilbert spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
15 Hilbert adjoint operators on Hilbert spaces TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
16 Final Exam
Recommended or
Required Reading
1.R.V.Churchill and J.W.Brown, Complex Variables and Applications ,McGraw-Hill Series in Higher
Mathematics, New York,1990.
2.M.R.Spiegel, Complex Variables, Schaum’s Outline Series in Mathematics-Statistics, McGraw-Hill
Series, New York, 1964.
3.R.P.Boas, Invitation to Complex Analysis, The Random House, New York,.1987,
4.A.Kaya, Karmaşık Degişkenler ve Uygulamalar, çeviri:R.VChurchill, Milli Eğitim Bakanlığı Yayınları,
İstanbul, 1989.
5.T.Başkan, Kompleks Fonksiyonlar Teorisi, Vipaş A.Ş., Yayın sıra no:38, Dördüncü Baskı, Bursa, 2000.
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 5 20
Project -
Presentation/ Preparing
Seminar -
Quizzes -
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 5 10 50
Project - -
Presentation/ Preparing Seminar - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - -
Mid-terms 2 7.5 15
Final examination 1 15 15
Total Work Load - - 170
Total Work Load / 30 (h) - - 5.66
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 3 3 3 3
LO2 4 4 4 4 4
LO3 5 5 5 5 5
LO4 2 2 2 2 2
LO5 4 4 4 4 4
LO6 5 5 5 5 5
LO7 3 3 3 3 3
LO8 3 3 3 3 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title NUMERICAL ANALYSIS II
Course Unit Code SMAT 404
Type of Course Unit ELECTİVE
Level of Course Unit BACHELOR (FİRST CYCLE)
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 4
Semester when the course unit is
delivered 8
Name of Lecturer
Mode of Delivery FORMAL EDUCATION
Language of Instruction TURKISH
Prerequisities and co-requisities NO
Recommended Optional
Programme Components NO
Work Placement NO
Objectives of the Course
To Investigate, Discrete Structure Error Analysis, to Introduce Theorical and Applied
Informations About Error Analysis, Finite Difference, Difference Equations, Enterpolation,
Regression, Numerical Derivative and Integration, Numerical Solution to Differential Equation
Learning Outcomes
1) At the and of this course you will be able to investigate beheviour of discrete structure.
2) At the and of this course you will be able to learn error analysis.
3) At the and of this course you will be able to investigate non-linear equations.
4) At the and of this course you will be able to investigate non-linear equation systems.
5) At the and of this course you will be able to learn finite difference
Course Contents
Discrete Structure Error Analysis, Introduce Theorical and Applied Informations About Error
Analysis, Finite Difference, Difference Equations, Enterpolation, Regression, Numerical
Derivative and Integration, Numerical Solution to Differential Equation Systems, Numerical
Solution to Algebrical Equation Systems
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Theoretical Courses Teaching & Learning Methods
1 Discrete Structure Error Analysis TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
2 Discrete Structure Error Analysis TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
3 Introduce Theorical and Applied
Informations About Error Analysis
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
4 Introduce Theorical and Applied
Informations About Error Analysis
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
5 Midterm exam
6 Finite Difference TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
7 Finite Difference TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
8 Difference Equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
9 Difference Equations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
10 Midterm exam
11 Enterpolation, Regression TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
12 Enterpolation, Regression TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
13 Numerical Solution to Differential
Equation Systems
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
14 Numerical Solution to Differential
Equation Systems
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
15 Numerical Solution to Differential
Equation Systems
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
16 Final exam
Recommended or
Required Reading
Course notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 20
Project -
Presentation/ Preparing
Seminar -
Quizzes -
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 1 10 10
Project - -
Presentation/ Preparing Seminar - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - -
Mid-terms 2 7.5 15
Final examination 1 15 15
Total Work Load - - 130
Total Work Load / 30 (h) - - 4.33
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 3 3 3 3
LO2 4 4 4 4 4
LO3 5 5 5 5 5
LO4 2 2 2 2 2
LO5 5 5 5 5 5
LO6 2 2 2 2 2
LO7 4 4 4 4 4
LO8 3 3 3 3 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title Axiomatic Geometry
Course Unit Code OMAT 404
Type of Course Unit OPTİONAL
Level of Course Unit FIRST CYCLE
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) NONE
Laboratory (hour/week) NONE
Year of Study 4
Semester when the course unit is
delivered 7
Name of Lecturer RESEARCH ASSISTANT OF MATHEMATIC DEPARMENT
Mode of Delivery FACE TO FACE
Language of Instruction TURKISH
Prerequisities and co-requisities NONE
Recommended Optional
Programme Components NONE
Work Placement NONE
Objectives of the Course
To construct system of axioms with their properties of “consistency” and “independency”, to develop ones ability towards systematic thinking, by examining all results which will be obtained from system of axioms at nearlinear spaces, projective spaces and Afin spaces and example of spaces satisfying these axioms
Learning Outcomes
1) He/She defines the basic concepts of motion geometry,
2) He/She compares structure of affine space with structure of Euclidean space,
3) He/She proves and interprets the theorems related to Euclidean space isometries,
4) He/She defines and classify the motions,
5) He/She solves the problems related to transformation groups,
6) He/She classify the isometries,
Course Contents
Axiomatic systems, near‐linear spaces, linear spaces, de Brujin‐Erdös theorem, commutative property, hyperplanes, projective spaces, subplanes, projective planes, affine planes, embedding of the affine plane into projective plane.
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Theoretical Courses Teaching & Learning Methods
1 The Affine Spaces Telling, explanation and question-answer
2 Affine Coordinate Systems Telling, explanation and question-answer
3 Affine transformation, Affine Group Telling, explanation and question-answer
4 Affine Subspaces Telling, explanation and question-answer
5 FIRST EXAM
6 Euclidean Spaces, Euclidean Coordinate
Systems Telling, explanation and question-answer
7 Euclidean Subspaces, Isometries Telling, explanation and question-answer
8 Introductory to transformation Telling, explanation and question-answer
9 Motions of Euclidean Space Telling, explanation and question-answer
10 Types of motions of plane, Translations Telling, explanation and question-answer
11 Rotations Telling, explanation and question-answer
12 Translations and Rotations resultant Telling, explanation and question-answer
13 Reflections, Telling, explanation and question-answer
14 Transflections. Telling, explanation and question-answer
15 FINAL EXAM
16
Recommended or
Required Reading
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 %20
Project NONE NONE
Presentation/ Preparing
Seminar NONE NONE
Quizzes NONE NONE
Mid-terms 2 %80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade %50
Contribution of Final Exam to Success Grade %50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 1 10 10
Project - - -
Presentation/ Preparing Seminar - - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - - -
Mid-terms 2 7,5 15
Final examination 1 15 15
Total Work Load - - 130
Total Work Load / 30 (h) - - 4,33
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1
LO2
LO3
LO4
LO5
LO6
LO7
LO8
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title DİSCRETE MATHEMATİCS
Course Unit Code SMAT 406
Type of Course Unit ELECTIVE
Level of Course Unit BACHELOR(FIRST CYCLE)
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 4
Semester when the course unit is
delivered 8
Name of Lecturer
Mode of Delivery FORMAL EDUCATION
Language of Instruction TURKISH
Prerequisities and co-requisities NO
Recommended Optional
Programme Components NO
Work Placement NO
Objectives of the Course
Math topics covered in this course various courses related to computer engineering
infrastructure constitutes the foundation of mathematics. Computer-related courses in general
are included in all programs with different content.
Learning Outcomes
1)At the and of thıs course you will be able to constitue System of Integers
2) At the and of thıs course you will be able to express Peano postulates
3) At the and of thıs course you will be able to express Fermat and chinese remainder theorems
4) At the and of thıs course you will be able to express Groups, Homomorphisms
5) At the and of thıs course you will be able to define mod congruence relation
Course Contents
System of Integers: Peano postulates. Noether order. Induction principle. Divisibility. Primes.
Relative primality. mod congruence relation. Fermat and chinese remainder theorems.
Generalized permutations and combinations. Stirling numbers. Generating functions:
Recurrence relations. Algebraic structures: Groups. Homomorphisms. Group codes. Polya s
method of enumeration. Rings . Galois fields. Cyclic codes.
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Theoretical Courses Teaching & Learning Methods
1 System of Integers TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
2 Peano postulates TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
3 Noether order TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
4 Induction principle TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
5 Midterm exam
6 Divisibility TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
7 Relative primality TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
8 Mod congruence relation TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
9 Fermat and chinese remainder theorems TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
10 Midterm exam
11 Generalized permutations and
combinations
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
12 Stirling numbers TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
13 Recurrence relations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
14 Recurrence relations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
15 Recurrence relations TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
16 Final exam
Recommended or
Required Reading
1) C.L.Liu, "Elements of Discrete Mathematics", McGraw Hill, 1987.
2) K.H. Rosen, "Discrete Mathematics and Its Applications", McGraw Hill, 1998.
3) H.F.Mattson.Jr., "Discrete Mathematics with Applications", John Wiley and Sons, 1993.
4) D.F.Stanat and D.F.McAllister, "Discrete Mathematics in Computer Science", Prentice Hall,1977.
5) R. P. Grimaldi, "Discrete and Combinatorial Mathematics", Addison - Wesley, 1985.
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 20
Project -
Presentation/ Preparing
Seminar -
Quizzes -
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 1 10 10
Project - -
Presentation/ Preparing Seminar - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - -
Mid-terms 2 7.5 15
Final examination 1 15 15
Total Work Load - - 130
Total Work Load / 30 (h) - - 4.33
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 3 3 3 3
LO2 4 4 4 4 4
LO3 4 4 4 4 4
LO4 3 3 3 3 3
LO5 4 4 4 4 4
LO6 4 4 4 4 4
LO7 3 3 3 3 3
LO8 2 2 2 2 2
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title INTRODUCTION TO CRYPTOLOGY
Course Unit Code SMAT 410
Type of Course Unit ELECTİVE
Level of Course Unit BACHELOR (FİRST CYCLE)
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 4
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 4
Semester when the course unit is
delivered 8
Name of Lecturer
Mode of Delivery FORMAL EDUCATION
Language of Instruction TURKISH
Prerequisities and co-requisities Linear algebra and Algebra
Recommended Optional
Programme Components NO
Work Placement NO
Objectives of the Course Students should be able to demonstrate an understanding of some legal and socio-ethical issues
surrounding cryptography and overview of some of the classical cryptosystems
Learning Outcomes
1) At the and of this course you will be able to will be able to have an overview of some of the
classical cryptosystems
2 )At the and of this course you will be able to explain the fundamentals of cryptography, such
as encryption, digital signatures and secure hashes
3 )At the and of this course you will be able to select appropriate techniques and apply them to
solve a given problem.
4) At the and of this course you will be able to design and evaluate security protocols
appropriate for a given situation.
5) At the and of this course you will be able to demonstrate an understanding of the
mathematical underpinning of the cryptography.
Course Contents Algebraic structure, techniques of cryptography
Wee
kly
Det
ail
ed
Cou
rse
Con
ten
ts
Week
TOPICS
Theoretical Courses Teaching & Learning Methods
1 Classical cryptosystems TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
2 Classical cryptosystems TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
3 Fundamentals of cryptography TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
4 Fundamentals of cryptography TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
5 Midterm exam
6
Appropriate techniques and apply them to
solve a given problem.
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
7
Appropriate techniques and apply them to
solve a given problem.
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
8
Design and evaluate security protocols
appropriate for a given situation.
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
9
Design and evaluate security protocols
appropriate for a given situation.
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
10 Midterm exam
11
Design and evaluate security protocols
appropriate for a given situation.
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
12 Algebraic structure TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
13 Algebraic structure TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
14 Mathematical underpinning of the
cryptography
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
15 Mathematical underpinning of the
cryptography
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
16 Final exam
Recommended or
Required Reading
Course notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 20
Project -
Presentation/ Preparing
Seminar --
Quizzes -
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 1 10 10
Project - -
Presentation/ Preparing Seminar - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - -
Mid-terms 2 7.5 15
Final examination 1 15 15
Total Work Load - - 130
Total Work Load / 30 (h) - - 4.33
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 3 3 3 3 3
LO2 4 4 4 4 4
LO3 5 5 5 5 5
LO4 4 4 4 4 4
LO5 4 4 4 4 4
LO6 3 3 3 3 3
LO7 4 4 4 4 4
LO8 3 3 3 3 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High
INDIVIDUAL COURSE DESCRIPTION
Course Unit Title MEASURE THEORY
Course Unit Code SMAT 402
Type of Course Unit ELECTİVE
Level of Course Unit BACHELOR (FİRST CYCLE)
Number of ECTS Credits Allocated 6
Theoretical (hour/week) 3
Practice (hour/week) -
Laboratory (hour/week) -
Year of Study 4
Semester when the course unit is
delivered 8
Name of Lecturer
Mode of Delivery FORMAL EDUCATİON
Language of Instruction TURKISH
Prerequisities and co-requisities Analysis I-II-III-IV should be taken.
Recommended Optional
Programme Components NO
Work Placement NO
Objectives of the Course
To teach the fundamental notions of the thoery of functions with a real variable. Infinite sets,
measurable sets, measurable functions, Lebesgue integral, the space of square integrable
functions.
Learning Outcomes
1) At the and of this course you will be able to define infinite sets, countable infinity,
continuum, and ordering of sets.
2) At the and of this course you will be able to explaine limit point, closed and open sets, and
accumulation point.
3) At the and of this course you will be able to calculate the measure of open and closed sets,
and the inner and outer measures of bounded sets.
4) At the and of this course you will be able to translate measurable functions and their
properties, and convergence in measure.
5 At the and of this course you will be able to calculate the Lebesgue integral of a function and
compare the Lebesgue integral with Riemann integral.
Course Contents Fundamental notions and theorems of the theory of functions with a real variable.
The analysis of the concepts of measure and integral. W
eek
ly D
etail
ed C
ou
rse
Con
ten
ts
Week
TOPICS
Theoretical Courses Teaching & Learning Methods
1 Fundamental notions of functions with a
real variable
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
2 Fundamental notions of functions with a
real variable
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
3 Fundamental theorems of functions with a
real variable
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
4 Fundamental theorems of functions with a
real variable
TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
5 Midterm exam
6 The measure of open and closed sets TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
7 The measure of open and closed sets TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
8 Measurable functions TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
9 Measurable functions TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
10 Midterm exam
11 Lebesgue integral TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
12 Lebesgue integral TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
13 Riemann integral TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
14 Riemann integral TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
15 Riemann integral TELL- STATEMENT METHOD ,ANSWER
QUESTION TECHNIQUES
16 Final exam
Recommended or
Required Reading
Course notes
Assesements
Term (or year) Learning
Activities Quantity Weigh %
Assignment 1 20
Project -
Presentation/ Preparing
Seminar -
Quizzes -
Mid-terms 2 80
Total 100
Contribution of Term (Year) Learning Activities to Success
Grade 50
Contribution of Final Exam to Success Grade 50
TOTAL 100
Planned Learning Activities, Teaching Methods, Evaluation Methods and Student Workload
Activities Quantity Duration
(hour) Total Work Load (hour)
Course Duration (Including the exam week:
16xtotal course hours) 15 3 45
Hours for of-the-classroom study (Pre-study,
practice, literature survey, reading) 15 3 45
Assignments 1 10 10
Project - -
Presentation/ Preparing Seminar - -
Field study(Internships/Clinical
Study/Laboratory/Trip and Observation) - -
Mid-terms 2 7.5 15
Final examination 1 15 15
Total Work Load - - 130
Total Work Load / 30 (h) - - 4.33
ECTS Credit of the Course - - 6
CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME OUTCOMES
Learning
Outcomes
Programme Outcomes
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10
LO1 4 4 4 4 4
LO2 4 4 4 4 4
LO3 5 5 5 5 5
LO4 2 2 2 2 2
LO5 4 4 4 4 4
LO6 5 5 5 5 5
LO7 3 3 3 3 3
LO8 3 3 3 3 3
Contribution Level: 1 Very Low 2 Low 3 Medium 4 High 5 Very High