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Høst 2018
ITE1814 Thermodynamics  10 stp
The course is administrated by
Type of course
Course contents
 Thermodynamic systems
 Propoerty, state, proecss and equilibriuim
 Energy and first law of thermodynamics
 Energy transfer by work of heat
 Energy balance for systems and cycles
 Evaluating & retrieving thermodynamic properties of a system
 Tables of thermodynamic properties
 Conservation of mass and energy for a control volume
 Second law of thermodynamics
 Use of entropy
 Introduction to vapor power cycles
 Vapor refrigeration and heat pump systems
 Basics of heat transfer (conduction & convection)
Application deadline
Admission requirements
'Generell studiekompetanse' with Mathematics R1+R2 and Physics FYS1.
Prerequisite: IGR1600
Recommended prerequisite: IGR1603
Objective of the course
Knowledge:
This course aims to build the foundation for preparing students to get an understanding and work professionally in the area of thermodynamics and related processes. Upon completion of this course, the student will be able to:
 Describe the theories and concepts regarding thermodynamics & basic of heat transfer.
 Describe functions and practical usage of thermodynamic processes and related components, e.g. heat pumps, and cooling machines.
 Apply principles of engineering, basic science and mathematics to model, analyse, design and realize thermodynamics systems, components and processes.
 Perform technical calculations on systems as well as components within the technical area, e.g. dimensioning of heat exchangers, the heat factor of a heat pump, and the power consumption of a pump
Skills:
Students will learn to apply their knowledge in the subject to solve general and specific problems in thermodynamics on a wellfounded and understandable way. (LU M F 1..5 ) .
General Competence:
Students have a basis for assessing how the choice of process equipment and components have an impact on resource use , economics and security . (LU M G  1..2 )
Language of instruction
Teaching methods
Assessment
Grade is awarded on the basis of class assignments / laboratory exercises 40% and final 3 hour written exam 60%. Student must achieve at least 50 % overall to pass the course
A resit exam will be arranged for this course.
Date for examination
The date for the exam can be changed. The final date will be announced at your faculty early in May and early in November.
Recommended reading/syllabus
Michael J. Moran: Introduction to Thermal Systems Engineering: Thermodynamics, Fluid Mechanics and Heat Transfer
Støttelitteratur
 Frank Kerith: The CRC handbook of Thermal Enginnering
 R. S. Amando & B. Sunden: Thermal Engineering in Power Systems
 R. K. Rajput: Thermal Engineering 8th Edition
 B. K. Sarkar: Thermal Engineering
 M. Moran: Principle of Engineering Thermodynamics 7th Edition
 Y. A. Cengel: Thermodynamics, An Engineering approach 7th Edition
 C. Borgnakke: Fundamental of Thermodynamics 7th Edition
Lectures Autumn 2018 

Forelesning 
prof. Muhammad Shakeel Virk 