Czech

Not applicable.

Graduate of the course will be able to apply the acquired knowledge in doctoral study of material engineering and in particular in solving dissertation work connected with research in the field of advanced structural, electroceramic and bioceramic materials.

Knowledge of material sciences and engineering at Masters level.

Not applicable.

The course is taught in the form of lectures and consultations, which have the character of explanation of basic principles and theory of the given discipline.

The examination of the theoretical knowledge assessment and its practical application will take the form of a 30-minute presentation with a discussion on advaced ceramic topics close to the doctoral dissertation's goals.

Not applicable.

Not applicable.

The course will provide students with the advanced physico-chemical knowledge required for experimental study in the field of structure and properties of ceramic materials and composites.

Depending on the number of participants, the course will take the form of consultations or lectures. At the end of the course the doctoral student will prepare a thematic presentation in the field of advanced ceramic materials.

Not applicable.

Not applicable.

Swain M. (volume editor): Structure and properties of ceramics, vol.11 of Materials Science and Technology, WCH, Weinheim 1994
Ravagoli A. and Krajewski: Bioceramics, Chapman and Hall, London 1992

Not applicable.

20 hours, optionally

1. Diffusion in ceramic materials, ceramics microstructure, imperfections in ceramics, theory of diffusion, examples of diffusion in ceramics, processes involving diffusion.
2. Mechanical behaviour of ceramics: elasticity, monocrystal and polycrystalline ceramics, influence of porosity. Fracture: fracture at the atomic level, crack initiation and propagation, plasticity, slip at the atomic level, dislocation glide in ceramics, high temperature plasticity, creep mechanisms, toughening mechanisms.
3. High temperature engineering ceramics, oxide ceramics (alumina, zirconia, mullite, cordierite), non-oxide ceramics (silicon nitride, silicon carbide, sialons), ceramic matrix composites.
4. Ceramic superionic conductors, theory of superionic conduction, oxygen-ion conductors (doped zirconia, ceria, hafnia, bismuth oxide, pyrochlores, beta-alumina), proton conductors (doped cerate, zirconate, beta-alumina).
5. Ferroelectric ceramics, crystal structure and ferroelectricity, high permitivity dielectrics, pyroelectric devices, piezoelectric devices, electrooptic devices, termistors.
6. Ferrimagnetic ceramics, basic concepts, ferrite crystal structures, microstructure and grain boundary chemistry.
7. Semiconducting polycrystalline ceramics, semiconductivity and grain boundary effects, electrostatic barriers and transport properties.
8. Oxide superconductors, crystal structures (cuprates, bismuth perovskites), properties, thin films.
9. Biomaterials for surgical use, physical properties and physiology of bone, compatibility between bioceramics and the physiological environment, main surgical alloys, biomedical polymers, biological glasses, ceramics (alumina, zirconia, titania, silicon nitride, composite aluminous ceramics, sialons, phosphate ceramics).