Course Information

Course Title	Code	Semester	L+U Hour	Credits	ECTS
ADVANCED THERMODYNAMICS	802700735010		3 + 0	3.0	8.0

Prerequisites

None

Language of Instruction	English
Course Level	Graduate Degree
Course Type	Compulsory
Mode of delivery	Face-to-face
Course Coordinator
Instructors	Özcan KÖYSÜREN
Assistants
Goals	The aim of this course is to extend the undergraduate thermodynamic knowledge (thermodynamic's laws, phase and chemical equilibria, stability criteria) of the students, deal with the statistical aspects of thermodynamics and show that the concepts of thermodynamics are applicable to energy conversion processes.
Course Content	An overview of first and second laws, calculus of thermodynamics, phase, and chemical equilibrium, stability criteria, statistical thermodynamics, exergy analysis, heat engines and power cycles, thermodynamic application to thermal systems, thermodynamic analysis of stationary fluidized systems, thermodynamics of combustion.
Learning Outcomes	1) The students will learn the calculus of thermodynamics. 2) The students will learn the phase and chemical equilibria. 3) The students will learn the stability criteria. 4) The students will learn the statistical thermodynamics. 5) The students will learn the exergy analysis. 6) The students will learn heat machines and power cycles 7) The students will learn thermodynamic application to thermal systems. 8) The students will learn thermodynamic analysis of stationary fluidized systems. 9) The students will learn thermodynamics of combustion.

Week	Topics	Teaching and Learning Methods and Techniques	Study Materials
1. Week	Overview thermodynamics' first and second laws	Lecture; Problem Solving; Discussion	Homework
2. Week	Calculus of thermodynamics	Lecture; Problem Solving; Discussion	Homework
3. Week	Phase and chemical equilibria	Lecture; Discussion	Homework
4. Week	Phase and chemical equilibria	Lecture; Problem Solving; Discussion	Homework
5. Week	Stability criteria	Lecture; Discussion	Homework
6. Week	Statistical thermodynamics	Lecture; Problem Solving; Discussion	Homework
7. Week	Midterm exam	Question Answer	Homework
8. Week	Exergy analysis	Lecture; Problem Solving; Discussion	Presentation (Including Preparation Time)
9. Week	Exergy analysis	Lecture; Problem Solving; Discussion	Presentation (Including Preparation Time)
10. Week	Heat machines and power cycles	Lecture; Problem Solving; Discussion	Presentation (Including Preparation Time)
11. Week	Aplication of thermodynamics to thermal systems	Lecture; Problem Solving; Discussion	Presentation (Including Preparation Time)
12. Week	Thermodynamic analysis of stationary fluidized systems	Lecture; Problem Solving; Discussion	Presentation (Including Preparation Time)
13. Week	Midterm exam	Question Answer	Homework
14. Week	Thermodynamics of combustion	Lecture; Problem Solving; Discussion	Presentation (Including Preparation Time)

Recommended Sources

D. Winterbone and A. Turan , "Advanced Thermodynamics for Engineers", 1996, Butterworth-Heinemann.

Ismail Tosun, “The Thermodynamics of Phase and Reaction Equilibria”, 2012, Elsevier.

Jefferson W. Tester and Michael Modell, “Thermodynamics and Its Applications”, 1996, Prentice Hall.

*DK = Course's Contrubution.

	0	1	2	3	4	5
Level of contribution	None	Very Low	Low	Fair	High	Very High

Event	Quantity	Duration (Hour)	Total Workload (Hour)
Course Duration (Total weeks*Hours per week)	14	3	42
Work Hour outside Classroom (Preparation, strengthening)	14	6	84
Homework	5	6	30
Presentation (Including Preparation Time)	2	8	16
Project (Including Preparation and presentation Time)	1	8	8
Report (Including Preparation and presentation Time)	1	8	8
Quiz	1	1	1
Time to prepare for Quiz	1	5	5
Midterm Exam	2	2	4
Time to prepare for Midterm Exam	2	14	28
Final Exam	1	2	2
Time to prepare for Final Exam	1	10	10
Total Workload
Total Workload / 30 (s)
ECTS Credit of the Course			30