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The modern experimental research methods in condensed matter physics

ДВА. 02.18

Вибіркова дисципліна для ОП

Third

2018/2019

4 Semester

4

PLO-04. Plan and perform experimental and / or theoretical research in physics (astronomy) and related interdisciplinary fields using modern tools, critically analyze the results of their own research and the results of other researchers in the context of the whole complex of modern knowledge on the research problem. PLO-07. Deeply understand the general principles and methods of natural sciences, as well as the methodology of scientific research, be able to apply them in their own research in physics (astronomy) and in teaching practice.

Distance form

- The graduate student must know: the basic laws and key experiments of classical electrodynamics, optics, atomic physics and quantum theory of solids, as well as the basics of mathematical, vector and tensor analysis, the theory of function of a complex variable; - The graduate student must be able to: apply knowledge from the courses of experimental and theoretical physics, as well as solid state physics to solve problems in crystal structure, electronic structure and phonon spectra of bulk crystals, nanosystems and nanocomposites, experimental determination of their mechanical, electrical and heat transfer properties, optical and magnetic characteristics.

The course is aimed at forming ideas and gaining systematic knowledge of modern methods of experimental research in condensed matter physics (tunnel, atomic, magnetic and electropower probe microscopy, X-ray diffraction analysis (XRD), in particular, low-angle X-ray scattering (SAXS) EXAFS, X-ray Photoelectron Spectroscopy (XPS), which provides diagnostics of a wide range of physical properties of the latest functional and structural materials, including modern electronics and solar materials. Possibilities of practical application of such methods at designing and development of technologies of science-intensive production on the basis of modern constructional materials are analyzed.

1. А.М. Goriachko, С.П. Kulik, OV. Prokopenko. Fundamentals of scanning probe microscopy and spectroscopy. Kyiv, Kyiv National University, 2012. 2. E.G. Dedkova, AA Chuprik, II Bobrinetsky, VK Nevolin. Probe microscopy instruments and methods. M .: MIPT, 2011. 3. II Bobrinetsky, VK Nevolin. Probe microscopy in nanotechnology. M .: MISI, 2008. 4. V.L. Mironov. Fundamentals of scanning probe microscopy. M .: Technosphere, 2004. 5. EXAFS: Theory. https://chem.libretexts.org/Bookshelves/Physical_and_Theoretical_Chemistry_Textbook_Maps/Supplemental_Modules_(Physical_and_Theoretical_Chemistry)/Spectroscopy/X-ray_Spectroscopy/EXAFS%3A_Theory 6. Introduction to Small-Angel X-Ray scatterin. https://www-ssrl.slac.stanford.edu/~saxs/download/weiss_intro.pdf.

The total amount of 120 hours, including: lectures - 18 hours; practical classes - 4 hours; consultations - 2 hours; independent work - 96 hours.

1. Modular tests are carried out approximately from 1 to 5 March 2022. (1 modular k.r.), and from 20 to 25 April (2 modular k.r.) and are held in extracurricular time. 2. Evaluation of the implementation of practical tasks is carried out approximately from 20 to 25 February and from 15 to 20 April 2022. Practical classes are classroom. 3. Topics of abstracts are offered approximately from 1 to 5 February 2022. and the results of their evaluation are reported from 25 to 30 April 2022. 4. Evaluation of speeches in the discussion of lectures is ongoing at each lecture.

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