| Load: | 
                                
                                    | 
                                                                                                                                                                                                                                                                 1. komponenta
                                                             * Load is given in academic hour (1 academic hour = 45 minutes)
                                                                 | Lecture type | Total |  
                                                                     | Lectures | 30 |  
                                                                     | Exercises | 15 |  | 
                                                                                                        
                                | Description: | 
                            
                                | Thermodynamics as an autonomous discipline: Introduction. Basic concepts. The first law of thermodynamics. Machines. The second law of thermodynamics. The reversibility and entropy. Thermodynamic potentials. Practical accounts.Introduction to statistical physics: Basic considerations. Ensemble: universal random model. The connection with thermodynamics.
 Canonical and grand-canonical ensemble: The canonical ensemble. Grand-canonical ensemble. Sums by conditions such as generating functions. Classical ideal gas. Maxwell distribution and equiparticion energy.
 Quantum statistical physics: Basic considerations. The ideal fermion gas. The ideal boson gas.
 Examples and models: the barometric formula. Diatomic molecules. Heat capacity of the crystal. Van der Waals model of gas liquefaction.
 
 LEARNING OUTCOMES:
 Upon successful completion of the course Statistical Physics student will be able to:
 1.Demonstrate a thorough knowledge of abstract thermodynamics at an elementary level of the theory of functions of several variables;
 2.Explain the difference of thermodynamics and theoretical mechanics, or thermalization as real physical process;
 3.Describe the role of thermalization and Liouville theorem in the foundation of statistical physics;
 4.Explain the physical construction of the thermodynamic potential, through the interaction energy between the system and the outside world;
 5.Demonstrate a thorough knowledge of statistical interpretation of thermodynamic potentials, especially entropy and Massieuovih function;
 6.Explain the role of the chemical potential and the qualitative behavior of the classical and quantum border;
 7.Qualitatively and quantitatively described four ideal gas (fermions, bosons, light, sound) in classical and quantum border;
 8.Discuss basic properties of the phase transition of Van der Waals-s gas liquefaction.
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                                | Literature: | 
                           
                                | 
                                                                                                                        C. Kittel, Elementary Statistical Physics, Dover 2004, ISBN 0486435148.R. Kubo et al., Statistical mechanics: an advanced course with problems and solutions, North-Holland, Amsterdam 1988, ISBN 0444871039.Skripta: http://www.phy.hr/dodip/notes/statisticka.html |