Module catalogue 2018/2019
| 1E1AD2 | Physique statistique - Statistical physics | Electronics and Applied Physics | S5 | ||||||
|---|---|---|---|---|---|---|---|---|---|
| Lessons : 14 h | TD : 14 h | TP : 0 h | Project : 0 h | Total : 28 h | |||||
| Co-ordinator : Jean-Claude Angelique | |||||||||
| Prerequisite | |
|---|---|
| Basic concepts in classical thermodynamics | |
| Course Objectives | |
| Describe the fundamentals of the microscopic description of equilibrium systems. Statistics by Maxwell Boltzmann, Fermi Dirac and Bose Einstein Semiconductor applications. |
|
| Syllabus | |
| - General introduction - Essential data of classical thermodynamics. - Introduction of thermodynamic principles in the microscopic description of systems. - Statistical entropy. - Partition function and applications. - Statistics of Maxwell Boltzmann and gas applications - Fermi - Dirac and Bose Einstein statistics and applications to semiconductors |
|
| Practical work (TD or TP) | |
| Training in the basic calculations of the statistical description of systems. Applications to the description of many phenomena: conduction of metals, properties of contacts between doped metals or semiconductors, role of temperature in many physical phenomena. Conductivity. |
|
| Acquired skills | |
| Knowledge of classical and quantum statistics for their uses for all kinds of applications in Physics and Electronics. |
|
| Bibliography | |
| H. NGO, C. NGO, Physique statistique, ed. Masson. I. COUTURE, R. ZITOUN, Physique statistique, ed. Ellipses. |
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