Course Code                              : 0502506

 Course Name                              : Heat Transfer

 Instructor                           : Dr. Refet KARADAĞ

 Theoretical/ Practical/Credit       :  3 / 0/ 3

Learning Activity	Estimated Time(Hour)	Evaluation
Theoretical Course (14 Week)	3 x 14 = 42	Participation to class
Guided Problem Solving	None
Individual Study	3 x 14 = 42
Weekly homework problems be solved	1 x 14 = 14	Individual or teamwork and report preparation for homework’s.
Term project	None
Midterm Exams	4 x 2 = 8	Closed Book
Final Exam	For Exam            : 2 Individual Study: 8	Closed Book
Quiz (4 Piece)	Individual Study: 8	Closed Book
Research (internet / library)
Other (documentary / movie watching)
Other (conference, panel, etc.. Attend meetings)
Total Course Load (Hours)	124

Code of course & Name	:	0502506 Heat Transfer
Type of Course	:	Compulsory
Prerequisite/Recommended	:	Recommend take Thermodynamic I - II and Fluid Mechanic I course.
Semester	:	Fall Semester
Credit	:	3+0+3
Coordinate of course	:	Dr. Rafet Karadağ and Research Asst. Yusuf Işıker
Division/Department/Program	:	Mechanical Engineering
Instructor	:	Prof. Dr. Bülent Yeşilata
Room/Number classroom	:	MM2
Time of course	:	Tuesday (09-12)
Meeting time	:	Tuesday (08-09)
Groups	:	one group
Objective of the Course	:	Learn techniques of heat transfer and thermal projects
Course Contents	:	Introduction to Heat Transfer: Physical origin and type of heat transfer, Equations of heat transfer quantity (convection, conduction, radiation), Control volume and control surface energy conservation, basic of heat transfer analysis. Heat Transfer Mechanism with Convection: Flux of heat, thermal characteristics of material (convection of heat, coefficients of heat diffusion), derive of general heat convection equation, condition of limit and first time. Application of Heat Transfer with Convection: Analysis of a dimension determined heat convection (plane wall, cylinder and sphere), analysis of heat production available systems, analysis of heat transfer at winged surface, introduction to two dimension determined heat convection problem and solution method (method of graphics and finite difference), solution of dependent to time heat method convection and thermal capacitance, method of solution and convection+conduction include systems. Heat Transfer Mechanism with Conduction: Basic parameter (coefficient of local and average conduction, hydrodynamic and thermal boundary layers, coefficient of laminar and turbulent flow). Dimension number and important. Application of Heat Transfer with Conduction: Empirical method and formulate, problem of upper surface flow at the solution (upper of surface, perpendicular flow of cylinder and sphere), perpendicular flow of bunch pipe, solution of in the pipe flow (average velocity/ concept of heat and complete developed district, problem of cylindrical / non-cylindrical and annular in the canal flow), free conduction, boiling and condense, converter of heat. Analysis of heat transfer with radiation: concept of basic radiation and calculation of heat radiation   between surface
Textbook/Recommended Reading	:	[1] F. P. Incorpera ve D. P. De Witt,  Fundamentals of Heat and Mass Transfer, 4rd Edition, John Wiley & Sons, Inc, Newyork/NY, USA, 1996. [2] Isı Transferine Giriş I: Isı İletimi, Sadık Kakaç [3] Isı Transferi, Tuncay Yılmaz [4] Isı Transferi, Gürbüz Atagündüz. [5] Isı Transferi Ders Notları, Doç. Dr. B. Yeşilata Link of Universities Lehigh Mechanical Engineering http://www3.lehigh.edu/engineering/meche/ MIT Mechanical Engineering http://www-me.mit.edu Purdue Mechanical Engineering http://me.www.ecn.purdue.edu/ME/ Stanford Mechanical Engineering http://me.stanford.edu/
Semester Teaching Plan	Week		Subject
	1		Introduction to Heat Transfer: Physical origin and type of heat transfer, Equations of heat transfer quantity (convection, conduction, radiation), Control volume and control surface energy conservation, basic of heat transfer analysis.
	2		Heat Transfer Mechanism with Convection: Flux of heat, thermal characteristics of material (convection of heat, coefficients of heat diffusion), derive of general heat convection equation, condition of limit and first time.
	3		Application of Heat Transfer with Convection: Analysis of a dimension determined heat convection for plane of wall (dispersion of warmth, resistance of thermal, composite of wall)
	4		Application of Heat Transfer with Convection: Analysis of a dimension determined heat convection for radial systems (dispersion of warmth, resistance of thermal, composite of wall, critical of isolation radial)
	5		Application of Heat Transfer with Convection: analysis of heat production available systems for plane wall and radial systems, introduction to heat transfer on winged surface
	6		Midterm exam
	7		Applications of Heat Transfer with Convection: analysis of heat transfer on winged surface (general winged heat transfer equation, winged application with uniform cross-section, performance of winged, yield of total surface)
	8		Application of Heat Transfer with Convection: Solution of dependent to time heat method convection and thermal capacitance
	9		Heat Transfer Mechanism with Conduction: Basic parameter (coefficient of local and average conduction, hydrodynamic and thermal boundary layers, coefficient of laminar and turbulent flow). Dimension number
	10		Application of Heat Transfer with Conduction: Empirical method and formulate, problem of upper surface flow at the solution (upper of surface, perpendicular flow of cylinder and sphere)
	11		Application of Heat Transfer with Conduction: Perpendicular flow of bunch pipe, solution of in the pipe flow (average velocity/ concept of heat and complete developed district, flow problems of cylindrical / non-cylindrical and annular in the canal flow )
	12		Application of Heat Transfer with Conduction: heat transfer with introduction of free conduction, boiling and condense
	13		Application of Heat Transfer with Conduction: heat transfer with introduction of free conduction, boiling and condense.
	14		Application of Heat Transfer with Conduction: Converter Heat and analysis
Form of Assessment	One written midterm exam (40% ); one written final exam (60%)