Course Code:                            : 5103101

Course Name                            : Advanced Heat Transfer

  Instructor : Asst. Assoc. Dr. Refet KARADAĞ

  Theoretical / Practical / Credit : 3 / 0 / 3

Learning Activity	Estimated Time(Hour)	Evaluation
Theoretical Course (14 Week)0	3 x 14 = 42	Participation to class
Guided Problem Solving	None
Individual Study	3 x 14 = 42
Weekly homework problems solving	1 x 14 = 14	Individual or teamwork and report preparation for homework’s.
Term project	None
Midterm Exam	4 x 2 = 8	Open/ Closed exam
Final Exam	Exam            : 2 Individual work : 8	Open/ Closed exam
Quiz (4 piece)	Individual work : 8	Open/ Closed exam
Research (internet/library)
Other(………………………. )
Total Course Load (Hours)	124

HARRAN UNİVERSITY ENGINEERING FACULTY

MECHANICAL ENGI0NEERING DEPARTMENT

Course Name		Code	Semester	T+U	Credit	AKTS
Advanced Heat Transfer		5103101	Fall	3+0	3	5
Prerequisite Courses	None
Language of Course	Turkish
Course class	Compulsory
Coordinator of Course	Asst. Assoc. Dr. Refet KARADAĞ
Instructor	Asst. Assoc. Dr. Refet KARADAĞ
Course Assistant	-
Objective of course	Conduction, convection and radiation heat transfer is to teach the basic principles and enforce different application areas of engineering to teach numerical methods used to solve the equations of heat transfer and enforce these equations to engineering problems.
Course Learning Output	Conduction, convection and radiation to learn the principles, composite numerical methods used in solving heat transfer problems and to investigate the results of solution.
Course Contents	The concept of the continuum. Cartesian, cylindrical and spherical coordinates, the heat conduction. Time dependent heat conduction. Transport characteristics of the equations. Solution methods. In closed environments, the natural convection. Hydrodynamic and thermal boundary layer. Flow, heat transfer channels. Composite heat transfer. Improvement of heat transfer, the extended heat transfer surfaces. Thermal insulation methods, thermal insulation standards. numerical methods for solving heat transfer problems, finite difference, finite volume and finite element method.

Weeks	Plan of Course at Semester
1	Removal and application of the General Heat Conduction Equation
2	Continuous One-Dimensional Heat Transfer Conditions, Orthogonal Functions, Fourier Expansions and Finite Fourier Transforms
3	Continuous two-and three-dimensional Heat Transfer Conditions: Separation of Variables Method Solutions
4	Natural convection in, planar and cylindrical surfaces, natural convection
5	Physical mechanism of heat radiation, radiation shape factor, gray, and the heat radiation from the real surfaces
6	Conduction, convection and radiation with the investigation and establishment of energy balance
7	Unsteady heat transfer, heat transfer in different time-Connected Solution Methods
8	Heat transfer, numerical methods: finite differences, finite volume and finite element method.
9	Derivation of Momentum and Energy Equations.
10	MID-TERM EXAM
11	Heat exchangers and their applications, heat exchanger types, the average heat transfer coefficient.
12	logarithmic mean temperature difference, effectiveness (ε)-NTU method
13	Compact heat exchangers, variable for the analysis of properties, heat exchanger design
14	FINAL EXAM

General Sufficiency

Required for the solution of problems of heat transfer methods can be used and explore the results of solution

References

1. Heat transfer, seventh edition, Holman, J.P. London, 1992

2. Isı ve Kütle Geçişinin Temellleri, Frank P. Incropera, David P. Dewitt, 2001, Literatür yayınları. (Dördüncü basımdan çeviri. Çev: Taner Derbentli, Osman Genceli, Ali Güngör ve Diğerleri).

3. Örneklerle Isı Geçişi, Halıcı, F. ve Gündüz, M. Sakarya, 2001.

Form of Assessment

Mid Exam and Task/Project Average of Arithmetical: %40

Final:%60

Projects:-

Homework:-