Energy and Thermodynamic Basics
Module Title  Energy and Thermodynamic Basics  
Competency  Understanding basic physical concepts used in engineering  
Courses  Title  Teaching Method  SWS  Credits  Performance requirements/Examination 
Thermodynamics
Fundamentals  lecture, exercise  2  2 


Heat Transfer Fundamentals  lecture, exercise  4  4 


Fluid Mechanics Fundamentals  lecture, exercise  4  4 
 
Semester  winter  
Responsible  El Alimi  
Site  Monastir  
Lecturer(s)  Abdelmajid
Jemni Habib Ben Aissia Naceur Borgini Naoual Daouas, Maher Ben Chiekh Hacen Dhahri Khalifa Mejbri Ramla Gheith  
Language  English  
Workload  150
hours course attendance 100 hours selfstudy  
Credits  10  
Recommended Qualifications    
Learning Outcomes  a) Thermodynamics Fundamentals After the successful participation in the course Thermodynamics Fundamentals the students are able to:
After the successful participation in the course Heat Transfer Fundamentals the students are able to:
After the successful participation in the course Fluid Mechanics Fundamentals the students are able to:
 
Contents  a) Thermodynamics Fundamentals Fundamentals of thermodynamic e.g. open and closed systems, steadystate processing, state of matter, heat, molecular agitations, ideal gases, real gases; thermodynamic properties (internal energy, enthalpy, free energy, free enthalpy, entropy, specific heat); first and second law of thermodynamics for a closed system; thermodynamic relations (Gibbs equations, Maxwell's equations, characteristic functions, general expressions of S, U and H, general relationship between Cp and Cv); thermodynamic equilibrium phases (chemical potentials); state equations applied to pure fluids (state equation of ideal gases); thermodynamics of mixtures (mixture of ideal gases, ideal solutions); first law of thermodynamics for open systems (mass and energy balance); second law of thermodynamics for open systems (entropy balance sheet); exergy analysis (generation of entropy and exergy destruction, application to steady flows and closed systems); gas turbine (operating principle, Brayton cycle, inverted Brayton cycle), steam turbine (block diagram, Rankine cycles); engines; refrigeration machines, singlestage and twostage vapor compression (schematic diagrams, thermodynamic cycles in PH and TS diagrams, twostage compression and expansion); cryogenic thermodynamic processes; liquefaction of air (Linde and Claude cycles); production of dry ice. b) Heat Transfer Fundamentals
Fluid specifications, dimensions and units; the basic law of the hydrostatic; the applications (pressure variation, measuring pressure, hydrostatic force on a surface); fluid kinematics; dynamics of perfect incompressible fluids (Bernoulli equation, applications e.g. speed measurement); Euler theorem; dynamic of real incompressible fluids (Couette experience, laminar viscous flow, Poiseuille flow); concept of loss and singular linear load; boundary layer (concept of the boundary layer, local and global equations of the boundary layer, characteristics of the boundary layer, accurate and approximate solutions of the boundary layer); similitude and dimensional analysis; dynamics of elastic fluids (unidirectional flow); shockwave. 

Media  Black board and beamer, lectures and presentations, problem based teaching, experimental measurements, use of simple computer programs.  
Literature 
