TYPE OF COURSE UNIT	Compulsory Course
LEVEL OF COURSE UNIT	Bachelor's Degree
YEAR OF STUDY	2
SEMESTER	Third Term (Fall)
NUMBER OF ECTS CREDITS ALLOCATED	5
NAME OF LECTURER(S)	Assistant Professor Levent Çolak
LEARNING OUTCOMES OF THE COURSE UNIT	At the end of this course, the students; 1) Learning of thermodynamic properties for incompressible substances and gases 2) Understanding and applying the principle of conservation of energy, which is the first law of thermodynamics 3) Learning and applying the concept of entropy and irreversibility, which is the second law of thermodynamics 4) Modeling and analyzing closed systems according to the laws of thermodynamics 5) Modeling and analyzing open systems according to the laws of thermodynamics 6) To be able to analyze power generating and power consuming cycles in thermodynamics
MODE OF DELIVERY	Face to face
PRE-REQUISITES OF THE COURSE	No
RECOMMENDED OPTIONAL PROGRAMME COMPONENT
COURSE DEFINITION	Concepts and definitions in thermodynamics, Systems, Units, Temperature and pressure measurements, Concepts of energy, Energy transfer by work, Conservation of energy for closed systems. First law of thermodynamics, Energy transfer by heat, Energy analysis of thermodynamic cycles. Fixing the state, p-v-T relations, Thermodynamic properties, Ideal and real gases, Internal energy, Enthalpy, Specific heats of ideal gases, Evaluating ?u and ?h of ideal gases, Conservation of mass and energy for a control volume, Analysis of control volumes for steady state and transient systems. The second law of thermodynamics, Reversibility and identifying irreversibilities, Applications of second law to thermodynamic cycles, Maximum performance measures for thermodynamic cycles, Carnot cycle, Using entropy; Clausius inequality, Defining entropy change, Entropy change in internally reversible process, Entropy balance for closed systems, Entropy rate balance for control volumes, Isentropic processes and isentropic efficiency, Heat transfer and work in internally reversible steady state flow processes, Exergy (availability) analysis, Exergy balance for closed and open systems and exergetic efficiency, Thermodynamic analysis with ideal gas mixtures, Psychrometrics and HVAC applications, Reacting mixtures and Fundamentals of combustion.
COURSE CONTENTS	WEEK TOPICS 1st Week 1st Week Introductory concepts and definitions of thermodynamics 2nd Week 2nd Week Energy and work concepts 3rd Week 3rd Week The first law of thermodynamics 4th Week 4th Week Thermodynamic properties and evaluation 5th Week 5th Week Thermodynamic properties and evaluation 6th Week 6th Week Control volume and energy analysis 7th Week 7th Week Control volume and energy analysis 8th Week 8th Week The second law of thermodynamics 9th Week 9th Week The second law of thermodynamics 10th Week 10th Week Carnot cycle 11th Week 11th Week Entropy concept 12th Week 12th Week Entropy concept 13th Week 13th Week Exergy analysis 14th Week 14th Week Exergy analysis
RECOMENDED OR REQUIRED READING	Moran, M.J., and Shapiro, H.N., (2004) Fundamentals of Engineering Thernodynamics 5th Ed., John Wiley & Sons, Çengel, Y., Boles, M.A., (2002) Fundamentals of Engineering Thernodynamics, McGraw-Hill, Sonntag, R.E., Borgnakke, C., Van Wylen, G.J., (2003) Fundamentals of Thernodynamics 6th Ed., John Wiley & Sons.
PLANNED LEARNING ACTIVITIES AND TEACHING METHODS	Lecture,Problem Solving
ASSESSMENT METHODS AND CRITERIA	Quantity Percentage(%) Mid-term 1 35 Assignment 1 5 Quiz 1 10 Total(%) 50 Contribution of In-term Studies to Overall Grade(%) 50 Contribution of Final Examination to Overall Grade(%) 50 Total(%) 100
ECTS WORKLOAD	Activities Number Hours Workload Midterm exam 1 2 2 Preparation for Quiz 14 ,5 7 Individual or group work 14 2,5 35 Preparation for Final exam 14 1 14 Course hours 14 4 56 Preparation for Midterm exam 7 1 7 Laboratory (including preparation) Final exam 1 2,5 2,5 Homework Project 1 24 24 Quiz 6 ,3 1,8 Total Workload 149,3 Total Workload / 30 4,97 ECTS Credits of the Course 5
LANGUAGE OF INSTRUCTION	English
WORK PLACEMENT(S)	No