Educational program

More details
Code – Speciality

7M05301 - Technical physics
The aim of the educational program

Training of highly qualified, in-demand specialists in the field of physics, condensed matter physics, nanotechnology and additive technologies, adapted to the conditions of the market economy, able to analyze, know and perform the full range of production tasks through a combination of research, design, business.
Graduate model
Graduate qualification Professional sphere:

Fields of science and technology, including research, development, creation and operation of new materials, technologies, devices and devices.
The object of professional occupation:

Physical processes and phenomena, physical and physical–technological devices, systems and complexes, as well as research, scientific and industrial, design organizations, enterprises, firms, companies, centers and higher education institutions.
Types of professional occupation:

Researcher, research engineer and development engineer in the field of theoretical and applied physics,
Highly qualified specialist with a high level of knowledge in the field of science-intensive and computer technologies, mathematical modeling, energy saving and energy efficiency of various objects, processes and technologies;
Researcher in design and survey, research institutes, teacher in educational institutions (secondary professional, higher).
Functions of professional occupation:

Scientific and research activities:
the study of new scientific results, scientific literature or research projects in accordance with the profile of the object of professional activity;
application of science-intensive technologies and software packages for solving applied problems in the field of physics, chemistry, biology, Economics, medicine, ecology;
study of information systems by methods of mathematical forecasting and system analysis;
the study of large systems by modern methods of high-performance computing technologies, the use of modern supercomputers in the research;
research and development of mathematical models, algorithms, methods, software, tools on the subject of research projects;
preparation of scientific reviews, abstracts and bibliography on the subject of research;
participation in scientific seminars, scientific-thematic conferences, symposia;
preparation of scientific and technical publications;

Organizational and management activities:
development and implementation of quality management processes of production activities related to the creation and use of information systems;
compliance with the code of professional ethics;
planning of research activities and resources required for the implementation of production processes;
development of methods and mechanisms for monitoring and assessing the quality of production processes related to the creation and use of information systems;
Graduate competences map
Formed core competencies Program outcome
1. Have the ways and methods of students teaching and educating, pedagogical, psychological methods of the educational process organizing and the student group managing Analyze the position of various authors and understand the essence of scientific knowledge and cognition
2. Possess the skills of correct verbalization, meaningful description of observations, logical modeling of new phenomena meaning and its interpretation in physical systems Highlight cognitive aspects in physics: contextuality, consistency, multidimensionality, complexity and apply methods of analysis, comparison and explanation
3. Possess theoretical knowledge of laser systems functioning principles and safe methods of using laser radiation Ability to independently learn new research methods using high technologies, new materials and new technological processes and analyze the information received
4. Ability to fluently possess knowledge of fundamental sections of physics and radiophysics, necessary for solving research problems Possess skills in various areas of modern applied physics and material modification and be able to use modern information technologies in the educational process
5. Analyze the effect of radiation defects on the physical properties of crystals, as well as use size effects on the physical properties of bulk nanomaterials Possess the technique of analyzing and plotting phase equilibrium diagrams in alloys, methods of thermodynamic analysis and computational physics in relation to solids
6. Possess the theoretical foundations of the development of transformations in metals and alloys, phase diagrams to determine the nature of phase and structural transformations Be able to apply the basic operations of thermal and chemical-thermal treatment of standard parts of machines and tools
7. Possess modern professional knowledge in the field of phase transitions observed in solids, including systems of reduced dimension. Be able to use modern methods of hardening metals and applying hardening coatings
8. Ability to independently prepare assignments and develop design solutions taking into account the uncertainty factor Possess the methodology of complex scientific research of the structure and properties of metals and alloys
Modular Curriculum
Base disciplines Profiling disciplines Additional types of study