Infopaket

Physical interactions in nanosystems

ОК.02

Обов’язкова дисципліна для ОП

Second

2023/2024

1 Semester

3

Knowledge and understanding of the subject area and understanding of professional activity. Ability to use the laws, theories and concepts of chemistry in conjunction with appropriate mathematical tools for describing natural phenomena. The ability to build adequate models of chemical phenomena, investigate them to obtain new conclusions and deepen the understanding of nature, including using molecular, mathematical and computer modeling methods. Ability to apply computer modeling methods to solve scientific, chemical-technological problems and problems of chemical materials science. Ability to acquire new knowledge in the field of chemistry and integrate it with existing knowledge.

Full-time form

1. To know the basics of solid state physics, quantum and statistical physics. 2. To be able to apply knowledge of general physics, statistical and quantum physics to the analysis of properties of physical systems and structures. 3. Have elementary skills in mathematical analysis, linear algebra, differential equations and functions of a complex variable

The main effects related to the nano-dimensionality of systems, both classical and quantum-dimensional, are considered. The main technological methods of obtaining nano-systems and the basics of modern experimental methods of controlling their morphology and physical parameters are discussed. Among the classical phenomena in nano-systems, near-field effects, elements of nano-optics and effects of modern plasmonics, which are the basis of modern nanomedicine, are considered. The properties of quantum effects in quantum wells, superlattices, quantum threads and dots are described. The features of quantum transport in quasi-one-dimensional systems are analyzed. It is shown how the studied effects can be applied in modern physics, chemistry, biology, biotechnology and medicine.

Main: 1. V. Mitin, V. Kochelap, M. Strasio, "Quantum Heterostructures/ Microelectronics and Optoelectronics", Univ. Press., Cambridge, 1998 2. J. Davies, "The Physics of Low-Dimensional Semiconductors. An Introduction", Univ. Press., Cambridge, 1998 3. O.V. Tretyak, V.Z. Lozovskyi, "Physics of low-dimensional systems", VOC Kyiv University, Kyiv, 2013 Additional: 1. O.V. Tretyak, V.Z. Lozovskyi, "Fundamentals of Semiconductor Physics" Volume 2, VOC Kyiv University, Kyiv, 2009 2. O. Keller, Physics of local field // Phys. Rep.-1996.- v. 268, N2/3. 3. Girard C., Joachim C., Gauthier S. The physics of the near-field. // Rep.Prog.Phys.- 2000.- Vol.63.- P.893-938. 4. V. Lozovski, The Effective Susceptibility Concept in the Electrodynamics of Nano-Systems // J. Computational & Theoretical Nanosciences.- 2011.- v.7.-p.2077-2093.

lectures, seminar classes

semester evaluation: 1. two modular test papers: RN 1.1-1.2, 4.1 - 40 points/20 points. 2. Independent semester work: RN 2.1. - 20 points/16 points Total: 60 points/36 points. - final assessment: exam – 40 points/24 points

Ukrainian