The goal is to develop thin and gas-dense perovskite films with highest possible selective oxygen permeability.

Ключевые слова: смешанная проводимость; кислород-ионная проводимость; перовскиты; газовая динамика / смешанная проводимость; кислород-ионная проводимость; перовскиты; газовая динамика

A wide use of pristine graphene is restricted by transfer and patterning issues. Alternatively reduced graphene oxide films can be used. The deposition of graphene oxide films is technologically easy but their effective reduction is a matter of development.

Doped diamonds are perfect thermoelectric materials. Their wide use is hinderred by low reproducibility and efficiency of doping. This research is ongoing and of great importance for quantum electronics and power applications.

Ключевые слова: графен; восстановление оксида графена; нанесение пленок; производные алмаза / графен; восстановление оксида графена; нанесение пленок; производные алмаза

Semiconductor materials and related technologies are responcile for the latest technological revolution. These materials are applied nowadays everywhere in chips, displays, information storage devices, light emitters, detectors etc. A great choice of materials (inorganic, hybrid and organic) makes R&D practically unlimited but still very prospective. We dealth with hybrid perovskites, their crystallization, stability and interface engineering.

Ключевые слова: полупроводники; осаждение пленок; вакуумные процессы; физика плазмы / полупроводники; осаждение пленок; вакуумные процессы; физика плазмы

The R&D included: (i) development of the best buffer layers; (ii) optimization of deposition processes to combine them into single reel-to-reel path; (iii) achieving profitable manufacturing via upscaling and quality control.

Ключевые слова: магнитное поле); температура; критические параметры (ток; эпитаксиальный рост пленок; химическое осаждение из паровой фазы; диффузионные буферные слои; сложные купраты; высокотемпературные сверхпроводники / magnetic field); temperature; critical parametres (current; epitaxial films growth; chemical vapour deposition; diffusion buffer layers; complex cuprates; high temperature superconductors

The material science of TCOs is focused on high transparency and high electrical conductivity in the same material. It all means high charge carrier mobility which is usually a result of low doping level (high doping efficiency) and high crystallinity. There is however a great scope of amorphous In-based oxides with outstanding combination of transparency and conductivity. They are however unstable in post-processing steps. The film growth, chemistry of point defects, crystallization are the matters of this topic.

Ключевые слова: прозрачные электроды; допирование; оксиды; тонкие пленки; оптические и электрические свойства / прозрачные электроды; допирование; оксиды; тонкие пленки; оптические и электрические свойства