English

Not applicable.

The home faculty only

Upon completion of the course the students will be equipped with knowledge of material chemistry and physics of nonmetal materials. They will be acquainted with the processes and phenomena that occur in these materials and will understand selected applications using optical electrical and other properties of these materials.

Basic understanding of solid state physics, physical chemistry and general and organic chemistry.

Not applicable.

The course is realized through lectures - 2 hours per week. Students are provided with e-learning system LMS Moodle, in which students are provided with teaching support including electronic textbooks, presentations from lectures and others.

The course ends with a test (oral or written) in which students demonstrate acquired knowledge. To obtain the credit it is necessary to elaborate a semester project. Quality semester project will be reflected in the overall evaluation of the course.

Introduction, definition of the content of the course, introduction with the problems, possibilities and limits of organic electronics and photonics.
Characteristics of non-metallic materials: chemical and electronic structure of metallic materials (electronic structure of atoms, atomic and molecular orbitals, LCAO, bonding and antibonding orbitals, hybridization orbitals HOMO and LUMO levels, conjugated molecules)
Photophysical processes in organic materials - Excited states (absorption and emission, singlet and triplet states), the rate of electron transitions, the transition moment, Frank Condon principle, Radiative and nonradiative transitions, kinetics of excited states.
Exciton processes in organic materials - Solid phase: binding states of matter, amorphous and crystalline phases, excitons, Forester and Dexter energy transfer, quenching of excitons.
Molecular tailoring - the fundamental aspects of "tuning" of the properties of molecular materials.
Quantum chemical modeling of the properties of non-metallic materials.
The electrical conductivity of molecular materials - transport of charge carriers, materials for high charge-carrier mobility transistors.
Photogeneration of charge carriers - the photovoltaic effect, characterization of solar cells, photo-induced charge transfer, organic solar cells - materials and construction.
Photogeneration of charge carriers II - Hybrid Solar Cells: Dye-sensitized solar cells and perovskite - structures and materials.
Recombination of charge carriers - luminescence and electroluminescence materials for SS fluorescence and electroluminescence, light emitting diodes construction and lighting systems.
Methods to study the structure and properties of non-metallic materials - optical, electrical and optoelectronic.
Methods of preparation and characterization of thin films.
Conclusions - other selected topics of organic electronics (applications, eg. (Bio) sensors, NLO, laser) and a summary.

Not applicable.

To familiarize students with advanced features and applications of non-metallic materials. Understand the relationship between molecular and supramolecular structure and properties of non-metallic materials. To acquire knowledge of selected advanced applications.

A lecture of two hours per week for full-time study ends with an exam. Part of the exam is also the defense of the semester work, which students prepare for a selected theme from the course. The combined form of teaching is supported by an elearning course in which students are provided with learning support including electronic textbooks, presentations from lectures and others.

Not applicable.

Not applicable.

William D. Callister.Materials Science and Engineering: An Introduction. New York, John Wiley and Sons Inc., 2000

J-L Bredas, S. R. Marder, Organic Semiconductors, World Scientific, London, 2016