Fisica | STATISTICAL MECHANICS
Fisica STATISTICAL MECHANICS
cod. 0522600016
STATISTICAL MECHANICS
0522600016 | |
DIPARTIMENTO DI FISICA "E.R. CAIANIELLO" | |
PHYSICS | |
2013/2014 |
YEAR OF COURSE 1 | |
YEAR OF DIDACTIC SYSTEM 2010 | |
SECONDO SEMESTRE |
SSD | CFU | HOURS | ACTIVITY | |
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FIS/02 | 4 | 32 | LESSONS | |
FIS/02 | 2 | 24 | EXERCISES |
Objectives | |
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TO EXTEND THE BASIC KNOWLEDGE OF STATISTICAL MECHANICS OF THE THREE YEARS DEGREE TO ADVANCED PROBLEMS AS QUANTUM SYSTEMS, INTERACTING SYSTEMS AND NON-EQUILIBRIUM SYSTEMS. |
Prerequisites | |
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GENERALITIES OF EQUILIBRIUM STATISTICAL MECHANICS. NON-INTERACTING CLASSICAL SYSTEMS (PERFECT GAS, PARAMAGNET ETC...) BASIC FORMALISM AND APPLICATIONS OF QUANTUM MECHANICS (WAVE FUNCTION, SCHROEDINGER EQUATION, QUANTUM PARTICLES IN A BOX, SPIN). |
Contents | |
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QUANTUM STATISTICAL MECHANICS. FUNDAMENTAL POSTULATES AND DENSITY MATRIX. LIOUVILLE EQUATION. MICROCANONICAL, CANONICAL AND GRAN CANONICAL ENSEMBLES. PARAMAGNETISM. PARTITION FUNCTION OF NON-INTERACTING PARTICLES. CLASSICAL DESCRIPTION OF QUANTUM PARTICLES. STATISTICS OF NON-INTERACTING PARTICLES. BOSONS. PHOTONS. FERMIONS. PHONONS. CLASSICAL LIMIT. BOSE-EINSTEIN CONDENSATION. LOW-TEMPERATURE PROPERTIES OF ELECTRONS IN METALS. INTERACTING SYSTEMS. PHASE TRANSITIONS. VAN DER WAALS THEORY. FERRO-PARAMAGNETIC TRANSITION. CRITICAL EXPONENTS. PERCOLATION. ISING MODEL. OTHER SYSTEMS DESCRIBED BY THE ISING MODEL: GAS-LATTICE, BINARY MIXTURES, ANTIFERROMAGNETS ETC... SPONTANEOUS SYMMETRY BREAKING. FLUCTUATION-DISSIPATION THEOREM (STATIC). MEAN-FIELD THEORIES (LANDAU, WEISS, BRAGG-WILLIAMS, VAN DER WAALS). CORRELATION FUNCTIONS. ORNSTEIN-ZERNIKE THEORY. LIMIT OF VALIDITY OF MEAN FIELD: GINZBURG CRITERION. EXACTLY SOLUBLE MODELS: 1D ISING MODEL, SPHERICAL MODEL. SCALING THEORY. UNIVERSALITY. BLOCK TRANSFORMATIONS AND RENORMALIZATION GROUP. DYNAMICS. HYDRODYNAMIC APPROACH. LANGEVIN EQUATION. FLUCTUATION-DISSIPATION THEOREM (TIME DEPENDENT). MASTER EQUATION. FOKKER-PLANCK EQUATION. BROWNIAN OSCILLATOR. BOLTZMANN EQUATION. H-THEOREM. SPECTRAL ANALYSIS AND THE WIENER-KINTCHIN THEOREM. FLUCTUATION THEOREMS. |
Teaching Methods | |
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THEORETICAL LESSONS WITH EXERCISES. |
Verification of learning | |
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ORAL EXAM. |
Texts | |
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NOTES. |
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