Elements of condensed matter physics 390-FM2-1FFS

Problems related to structurally disordered systems and crystals. Methods of experimental investigations - X-ray diffraction, electronic transport, spectroscopic methods. Basic theoretical concepts of solid state physics- kinematic theory of diffraction, phonons, Fermi gas, electronic structure.
Students solve problems illustrating content of lectures. Students carried out or take part in experiments related to X-ray diffraction, heat of phase transition, specific heat, electric conductivity, critical phenomena.

Type of course

obligatory courses

Prerequisites (description)

Requirements for participation in the course "Elements of condensed matter physics" introduction to physics, experimental laboratory fundamentals of mathematical analysis fundamentals of quantum mechanics Basic concepts: atomic mass, molecular mass, definition of mole, molar mass, density, molar volume ideal gas and its properties definition of specific heat and molar heat linear thermal expansion coefficient Hooke law harmonic oscillator, vibrations of mass on a spring and two masses on a spring mechanical waves electromagnetic waves in vacuum, black body radiation electrical resistance, specific resistivity

Course coordinators

Wojciech Olszewski

Learning outcomes

- knows basic theoretical concepts used to explain the properties of condensed matter
- uses quantum mechanical rules to explain the properties of condensed matter
- knows basic experimental methods verifying the properties of condensed matter
- acquires the abilities to enhance knowledge in the field of condensed matter using the learnt language and concepts
- knows how to use resources of literature and the Internet critically and with understanding in the context of condensed matter problems
- has acquired the ability to work in an experimental team, as a leader or a contractor
- has acquired the ability to organize the work of an experimental team and to take the responsibility for the effects and results of the work

Assessment criteria

oral exam, colloquies, laboratory reports

Bibliography

C.Kittel, Introduction to Solid state Physics
H. Ibach, H. Lüth, Solid State Physics
N. W. Ascroft,N. D. Mermin, Solid Stae Physics
Notes from lectures available via e-learning platform

Additional information

Additional information (registration calendar, class conductors, localization and schedules of classes), might be available in the USOSweb system:

Description of 390-FM2-1FFS in USOSweb