- Docente: Beatrice Fraboni
- Credits: 6
- SSD: FIS/03
- Language: Italian
- Teaching Mode: Traditional lectures
- Campus: Bologna
-
Corso:
Second cycle degree programme (LM) in
Physics of the Earth System (cod. 8626)
Also valid for First cycle degree programme (L) in Physics (cod. 8007)
Learning outcomes
At the end of the course, the student has got basic knowledge of
mechanics and Hamiltonian phase space, ergodic hypothesis, the time
averages and averages in phase space. In particular, the student
has detailed knowledge about the method of Boltzmann entropy
maximization, systems microcanonici and canonical partition
functions for discrete spectra and continuum limit, the canonical
distribution. The student will acquire the basic knowledge of:
indistinguishability, not degenerate gas, equation of state
and thermodynamic functions for ideal gas, Gibbs paradox, an ideal
gas in an external field and the barometric formula, weakly ionized
atomic gas and the Saha formula, gas molecular and thermal
equilibrium of chemical reactions. Moreover, at the end of the
course, the student possesses the basic knowledge about the
solutions of the Schrödinger equation in a time-independent
one-dimensional systems, eigenvalues and eigenfunctions for the
problem of Schrödinger atom idrogenoide, expectation values and
symmetry properties, rules selection for transitions between states
in the approximation of the electric dipole. In particular, the
student is able to calculate the magnetic dipole moments, spin and
magnetic moment of spin, total angular momentum and total magnetic
moment. The student will acquire the fundamental knowledge of
Stern-Gerlach experiment, the fine structure of hydrogenic states,
the normal and anomalous Zeeman effect, the selection rules for
radiative transitions, the states of multi-electronic atoms, the
Pauli principle, the algorithm of the Hartree, exchange forces, the
excitation X-rays, the specific heat of a solid, the laser, the
LCAO method, the molecular orbitals, the band theory, crystalline
structures, molecules and molecular spectra.
Course contents
Readings/Bibliography
B.H.Bransden & C.J. Joachain, Physics of Atoms and Molecules,
ISBN-13: 978-0582356924
Eisberg-Resnick, Quantum Physics of Atoms, Molecules, Solids,
Nuclei and Particles, Ed. Wiley, Ed. Wiley ISBN-13: 978-0471873730
Teaching methods
The topics will be presented in such a way to stimulate the ability to identify similarities/differences among the various models, the experimental results and theories presented.
Assessment methods
Assessment is through a written plus an oral test. The written test (1:30h) consists in 2 exercises and one question (maximum length of the answer is half a page) to assess the student's knowledge of the topics discussed during the lectures. The written test is passed only with a grade equal or above 18/30 and the oral test has to be will present a difficulty level similar to that of the exercises discussed during the lectures.
Teaching tools
Blackboard, overhead projection
Office hours
See the website of Beatrice Fraboni