Magistracy
Speciality Code:
7M05304
Speciality Name:
Technical Physics
Faculty:
of Physics and Technology
Qualification:
- Scientific and pedagogical direction - Master of Natural Sciences
- Model of graduating student
- Mandatory disciplines
- Elective disciplines
- Professional
ON1 to analyze scientific and technical information using the experience of domestic and foreign scientists on the subject of research and modern information technologies for searching, storing, processing and transmitting new information;
ON2 to develop a program of a current educational course for teaching physical disciplines in view of the modern requirements of higher education pedagogy, the psychological and pedagogical foundations of the innovative educational process;
ON3 use modern physical and mathematical methods, computer-aided design methods to create innovative projects for the development, implementation and commercialization of new technologies and artificial intelligence methods to solve professional problems;
ON4 to interpret and summarize the results of scientific research; prepare reports, presentations and scientific publications with the presentation of practical recommendations for the implementation of the results in production;
ON5 develop proposals and improve technological processes and equipment with the involvement of innovative technologies; to assess the economic efficiency of technological processes and their environmental safety;
ON6 critically evaluate the quality and performance of labor, the costs and results of the team in the production activities; analyze the state of the scientific and technical problem, setting goals and objectives in order to improve and improve the efficiency of technological processes in the field of engineering physics;
ON7 simulate production processes and carry out engineering and technical-economic calculations using application packages and computer-aided processing methods;
ON8 independently carry out physical and technical studies to optimize the parameters of objects and processes using standard and special tools and software;
ON9 analyze the efficiency of technological processes to improve the performance of energy and resource saving, create technologies for waste disposal and systems for ensuring environmental safety of production;
ON10 to carry out an examination of technical documentation, to form an application for research projects with the preparation of schedules, technical specifications and reports;
ON11 to exercise control over the adjustment, adjustment and pilot testing of technical devices, systems and complexes, to select systems to ensure the required measurement accuracy;
ON12 show creativity in solving various situations and take responsibility for these decisions, argue their own judgments and scientific position, organize the work of the creative team to achieve their scientific goal
ON2 to develop a program of a current educational course for teaching physical disciplines in view of the modern requirements of higher education pedagogy, the psychological and pedagogical foundations of the innovative educational process;
ON3 use modern physical and mathematical methods, computer-aided design methods to create innovative projects for the development, implementation and commercialization of new technologies and artificial intelligence methods to solve professional problems;
ON4 to interpret and summarize the results of scientific research; prepare reports, presentations and scientific publications with the presentation of practical recommendations for the implementation of the results in production;
ON5 develop proposals and improve technological processes and equipment with the involvement of innovative technologies; to assess the economic efficiency of technological processes and their environmental safety;
ON6 critically evaluate the quality and performance of labor, the costs and results of the team in the production activities; analyze the state of the scientific and technical problem, setting goals and objectives in order to improve and improve the efficiency of technological processes in the field of engineering physics;
ON7 simulate production processes and carry out engineering and technical-economic calculations using application packages and computer-aided processing methods;
ON8 independently carry out physical and technical studies to optimize the parameters of objects and processes using standard and special tools and software;
ON9 analyze the efficiency of technological processes to improve the performance of energy and resource saving, create technologies for waste disposal and systems for ensuring environmental safety of production;
ON10 to carry out an examination of technical documentation, to form an application for research projects with the preparation of schedules, technical specifications and reports;
ON11 to exercise control over the adjustment, adjustment and pilot testing of technical devices, systems and complexes, to select systems to ensure the required measurement accuracy;
ON12 show creativity in solving various situations and take responsibility for these decisions, argue their own judgments and scientific position, organize the work of the creative team to achieve their scientific goal
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Psychology of management
- Number of credits: 3
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Formation of knowledge about the fundamental concepts of management psychology for the practical application of the most critical aspects of management in professional interaction. Basic principles of management psychology, personality in management interactions, management of personality behavior, modern ideas, psychology of managing group phenomena, motivation, and practical reflection.
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Foreign Language (professional)
- Number of credits: 5
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: The purpose is to acquire and improve competencies by international standards of foreign language education and to communicate in an intercultural, professional, and scientific environment. A master's student must integrate new information, understand the organization of languages, interact in society, and defend his point of view.
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History and Philosophy of Science
- Number of credits: 3
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Purpose: Understanding of modern philosophy as a system of scientific knowledge, including worldview in rational-theoretical comprehension. The discipline includes aspects of the evolution and development of scientific thinking, historical moments, the contribution of scientists and scientific schools to the formation of science, and ethical and social aspects of scientific activity.
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Organization and Planning of Scientific Research
- Number of credits: 5
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: The purpose of the discipline to form the skills necessary for planning and conducting high-quality and competitive research. The course forms the theoretical and methodological basis of the research process. Discipline is aimed at learning the basics of the scientific method, the rules for the preparation and review of scientific publications and projects. Special attention will be paid to the planning of experiments, the presentation and commercialization of research results, the preparation and submission of research projects.
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Pedagogy of Higher education
- Number of credits: 5
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: The purpose is the formation of the ability of pedagogical activity through the knowledge of higher education didactics, theories of upbringing and education management, analysis, and self-assessment of teaching activities. The course covers the educational activity design of specialists, Bologna process implementation, acquiring a lecturer, and curatorial skills by TLA-strategies.
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Calculation and ensuring the thermal regimej of devices and equipment
- Number of credits: 5
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: formation of masters of skills for conducting calculations of thermal modes of structures, checking the stage of development and setting up for production of thermal devices based on the nomenclature of design documents and the main issues of the organization of the process of designing devices. During the study of course, masters should be competent to: 1. analyze the basic configurations of circuits in real operating conditions; 2. evaluate the effectiveness of thermostatic control and temperature control systems taking into account thermal, structural and economic indicators; 3. manage methods of thermal regulation of the characteristics of devices in a changing ambient temperature; use diagnostic methods to increase the reliability of devices; 4. carry out control on the adjustment, tuning and pilot testing of technical devices, systems and complexes with the choice of systems providing the required measurement accuracy; 5. model thermal circuits using physical and mathematical methods and application software packages to optimize the parameters of objects and processes. During the study of the discipline masters will learn following aspects: Requirements for the thermal regime of instruments and devices. Features of heat transfer in the design of instruments and devices. The principles of constructing systems for providing thermal conditions for instruments and devices. Problems of microminiaturization and unification of instrument designs. Problems of increasing the reliability of devices. Problems of developing effective instrument cooling systems. The principles of building thermal control systems of devices and devices. Principles of calculating temperature fields in complex systems.
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Energy Saving Technologies
- Number of credits: 5
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: the formation of master's knowledge in the field of the theory of rational use of material and energy resources; mastering the skills of working with the theory and practice of modeling energy and resource-saving processes in technical physics, modern technologies for waste disposal of the energy industry. During the study of course, masters should be competent in: 1. evaluate the resource and energy efficiency of plants, technological complexes, factories and enterprises, power plants, utilities; 2. use modern methods and means of energy and resource conservation; basic concepts of the theory of resource saving and resource-saving technologies; methods and means of energy consumption, energy conservation and efficient use of energy resources; 3. reasonably choose the methods of analysis and optimization of energy and resource-saving systems; 4. interpret and analyze the results of building resource-saving systems; 5. to evaluate the composition and properties of intermediate products with the aim of the possibility of developing new technological processes that ensure their most complete use; 6. carry out statistical processing of experimental data. The total anthropogenic impact of technology on the environment. The role of energy processes in environmental pollution. Reducing the harmful effects of energy processes on the environment. Modern energy technology. The state of the problem of energy conservation, its legislative aspects. Rationing and rational modes of energy consumption. Programs and terms of reference for the production of energy surveys. Priorities in environmental protection. Patterns of development of the biosphere and conditions for maintaining ecological balance. Ensuring the environmental safety of the environment. Methods and means of energy and resource conservation. Methods of planning, management and control of energy and resource carriers. Efficient energy-saving technologies.
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Perspective direction in the energy
- Number of credits: 5
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: study of the main promising directions in the energy sector for the analysis of design solutions of developed and created power plants; for the calculation of electricity consumption, environmentally safe ways of obtaining energy, efficient use of energy and material resources. During the study of course, masters should be competent to: 1. formulate the laws of development of modern engineering and technology in the field of thermal physics and power engineering; analyze the prospects of scientific and technological development and the achievements of science and technology; 2. use advanced domestic and foreign experience in technical physics; 3. carry out the selection of technical means for measuring and processing the results with the required degree of accuracy; 4. determine the types of plants, classes and groups of materials, mechanisms for generating energy; 5. apply schemes for the use of alternative renewable and alternative energy sources; choose concepts and strategies for the development of energy complexes. During the study of the discipline masters will learn following aspects: Energy complexes. Development dynamics and energy sectors of the Republic of Kazakhstan. Environmental aspects of energy. Traditional and non-traditional sources of energy. Alternative energy sources. The role of alternative energy sources in the world and Kazakhstan. Solar energy production. Installations used for heating and hot water supply. The state of wind energy in the world and Kazakhstan. Wind energy resources of the Republic of Kazakhstan. The influence of the design of wind turbines on the generated power. Kazakhstan wind farms. Small hydropower. Tidal energy and other types of energy.
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Methods of Writing Scientific Articles
- Number of credits: 5
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: formation of systematic knowledge and skills for conducting research on the subject of research and preparing for publication of scientific articles in peer-reviewed journals based on Thomson Reuters, Scopus. During the study of course, masters should be competent to: 1. analyze and compare reference information, perform the necessary calculations in accordance with the standards accepted in the organization; apply technical and regulatory documentation; 2. critically evaluate the latest discoveries of natural science, offer prospects for their use in technical physics; 3. argue the results of scientific research, process and formalize them in the form of a scientific article for publication in the open press; 4. conduct research and experimental work in educational institutions; develop practical recommendations based on research data for implementation in the educational process and production; 5. conduct an expert review of technical documentation for the preparation of a report and the formation of applications for innovative projects with the preparation of schedules, technical tasks and specifications. During the study of the discipline masters will learn following aspects: General ideas about the methodology of science. The philosophical level of methodology. Structure, forms and methods of empirical and theoretical knowledge. Modern methodological approaches. Theory, methodology and methodology, their relationship. The relationship between the subject and the method. Research in pedagogy: the essence of the methodological apparatus. Methodology of scientific and pedagogical research. Classification of research methods. Requirements for the reliability, validity, and sensitivity of the methods used. Procedure and technology for using various methods of scientific and pedagogical research. Processing, analysis and interpretation of research results. Registration and presentation of the results of scientific work. Organization of experimental work in educational institutions.
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Diagnostics of Energy Technical Processes
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: mastering the skills of solving applied problems of diagnostics of power engineering processes and equipment using modern information technologies. During the study of course, masters should be competent to: 1. determine the electric power parameters of electrical machines and apparatus, electrical devices and systems; 2. carry out technical control during operation of electrical and electromechanical equipment; analyze equipment failures; 3. manage the processes of energy facilities using various ways to assess and control their interaction with the environment; 4. conduct comprehensive research, testing and diagnostics; analyze and adequately describe various test conditions, write technical specifications; 5. apply methods of diagnostics and monitoring of power engineering processes for calculating and forecasting the reliability of technological installations. During the study of the discipline masters will learn following aspects: Fundamental laws of energy technological processes. Diagnostic methods for energy engineering processes. Assessment and calculation of the main properties and reliability parameters of heat and electric energy production systems. Structural diagrams of reliability of technical systems and their calculation. The main methods for improving reliability and examples of using the theory of reliability for assessing the safety of systems for the production of heat and electric energy. Methodology of analysis and assessment of technological risk. Basic qualitative and quantitative risk assessment methods. Methodology for assessing reliability, safety and risk. Test and functional diagnosis. Regulatory documents that determine the acceptable level of interaction between the processes of energy facilities and the environment and their consequences.
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Modern Problems of Science, Technology and Production
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: application of skills of using elements of scientific worldview in solving problems of the chosen scientific direction technology and production. During the study of course, masters should be competent to: 1. use modern achievements of world science and advanced technology in research work, analyzing current problems of development of science, technology and production; 2. form conceptual ideas and directions of industrial development of technology in the Republic of Kazakhstan; 3. apply the tools of risk analysis of innovative activities; 4. perform the necessary calculations of research, justify them and present the results, methods and technologies in solving technical and production problems in the industry; 5. introduce new measuring equipment, draw up technical specifications for the development of standards that ensure product quality. During the study of the discipline masters will learn following aspects: Science - the main form of human knowledge. Stages of the development of science.Scientific and technological revolutions. Social functions of technology. Trends in the development of modern technology. Correlation of science, engineering and technology: linear model, evolutionary model. Methods of forecasting technical and economic development. The use of risk analysis tools in innovation. Analysis of the dynamics of development and competitiveness of countries and regions. Cosmology. Homogeneous isotropic theory of the universe. Artificial Intelligence. Guided thermonuclear fusion. The use of nanotechnology in production. Digital production. Industry 4.0.
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Thermal Physics of Rheological Fluids
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: determination of properties of rheological liquids and their flow laws in pipes, channels and boundary layer when flowing around flat surfaces in engineering developments. During the study of course, masters should be competent to: 1. classify rheological fluids by their composition, flow properties in pipes, channels and in the boundary layer; 2. explain the physical mechanisms of Newtonian and non-Newtonian fluid transfer processes; 3. use the Feucht and Maxwell models to calculate the characteristics of viscoelastic materials using MATLAB tools and software when describing heat and mass transfer processes in complex engineering objects; 4. conduct fluid studies using various types of viscometers; 5. solve self-similar boundary layer problems taking into account initial and boundary conditions. During the study of the discipline masters will learn following aspects: Classification of rheological fluids. Rheological fluids with characteristics that do not depend on the time and prehistory of the flow. Viscoelastic materials. The Feucht Model. Maxwell's Model. Experimental characterization of reestabilishand not reestabilish rheological fluids. Flow of rheological fluid in the pipe. Speed profile and second flow rate. Flow of Shvedov-Bingham plastics in a round tube. The boundary layer of rheological liquids. Equations and boundary conditions. Flow around a flat permeable plate with a uniform flow of a power liquid. A boundary layer with a power-law velocity distribution. Flow around the wedge.
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Thermophysical Processes in Cryogenic Systems
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: mastering of modern methods of low-temperature research and methods of calculating their characteristics for classical schemes of organization of cryogenic refrigerators and liquefiers by undergraduates. During the study of course, masters should be competent to: 1. interpret the current problems of cryogenic technology, taking into account the needs of industry; 2. carry out calculation and experimental work on the analysis of the characteristics of low-temperature devices and to carry out the calibration of low-temperature sensors; 3. determine the thermal load on the elements of technological processes in the energy sector and cryotechnology; 4. design and manufacture the main units of cryogenic-vacuum systems, use liquid nitrogen to obtain a cryogenic vacuum; 5. apply the methods of mathematical and computer modeling to optimize process parameters at low temperatures using COMSOL application software packages. During the study of the discipline masters will learn following aspects: Features of measurements at low temperatures. Gas thermometry with real gas.Designs of gas thermometers, their characteristics. The use of a gas thermometer in a cryophysical experiment. Semiconductor resistance thermometers. Physical fundamentals of cooling and obtaining low temperatures. Thermomechanical effects. Isoentropic expansion. Throttle compressed gas. Joule-Thompson effect. Fundamentals of vacuum technology. Cryovacuum technology. Classification of cryopumps and principle of operation. Requirements for an ideal pump. Mass transfer coefficients (sticking and condensation coefficient). Vacuum and current measuring instruments. The specifics of measuring vacuum at low temperatures. Knudsen effect.
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Thermal Physics of Conducting Media
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: selection and study of basic physical models of heat and mass exchange processes in stationary and moving media for calculating temperature fields, heat flows and mass. During the study of course, masters should be competent to: 1. understand the basics of the theory of flows in conducting media; 2. use the theory of continuum mechanics in describing heat and mass transfer processes to solve technical problems; 3. apply self-similar equations and methods of magnetohydrodynamic processes to the study and explanation of specific liquid and gas flows; 4. calculate heat and mass flows and temperature fields based on models of heat and mass transfer processes; 5. conduct simulation of magnetic hydrodynamics using the application software packages ANSYS Maxwell, COMSOL Multiphysics. During the study of the discipline masters will learn following aspects: The Main equations used in the study of flows in conducting media. MHD-equations for an ideal environment. "Frostbite" of the magnetic field. Alfven waves of finite amplitude. Discontinuous flows in magnetic hydrodynamics. Basic equation. Layered flows of a conducting fluid. The modes of the channel. Calculation of the induced magnetic field. Temperature field in the Hartmann current. The friction force on the walls of the channel Couette flow. Boundary layers in magnetic hydrodynamics. Resistance to movement in the MHD boundary layer. Estimation of the boundary layer thickness. Self-similar form of the boundary layer MHD equations in the non-induction approximation. Multiphysical modeling of magnetic hydrodynamics.
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Diffusion Instability in a Multicomponent Gas Mixtures
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: mastering the basic methods of calculating the diffusion process when solving practical problems of stationary and non-stationary diffusion mixing in multicomponent gas mixtures. Abstract оf discipline: Stefan-Maxwell diffusion equations. Features of multicomponent diffusion. Diffusion and instability of mechanical equilibrium in isothermal three-component gas mixtures. Ballast gas method. Inversion of the density of the mixture. The boundaries of stable diffusion in three-component gas mixtures. Concentration convection with isothermal diffusion in vertical channels of various shapes
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Spescial Chapters of Modern Physics
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: study of basic concepts, laws, and theories of classical and modern physics in their internal interrelation and integrity. During the study of course, masters should be competent to: 1. explain the current state and future development of physics, as well as engineering problems of interest in the main disciplines; 2. understand the impact of engineering solutions on the social context and the environment, taking into account environmental and economic security issues; 3. analyze the possibilities of applying the theories of modern physics in practical experience with the help of new information and communication technologies in the field of engineering; 4. apply the acquired knowledge to the formulation, formulation and solution of applied scientific problems in technical physics; 5. show initiative, entrepreneurial spirit and desire for success and adapt to new situations, be able to work independently and in an interdisciplinary team. During the study of the discipline masters will learn following aspects: General concepts of physics. Space-time symmetry: invariance and conservation laws. Spontaneous symmetry breaking. Superconductivity. Bose-Einstein condensation. Laser cooling and magnetic traps. Nanostructures. Spintronics. Principles of spintronic devices. Classical and quantum computers. Chaos. Butterfly effect. The prevalence and the modeling of chaos. Cosmology. Hubble law. Big bang. Physical universe. Stars and black holes. Controlled thermonuclear fusion. Physics of living systems. The problem of the origin of life and biological evolution. Entropy and sustainable development. Entropy, probability, and information.
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Optimization of technological processes
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: acquisition of skills in using modeling methods to describe the regularities of technological processes and optimize the parameters of the process and object under study. During the study of course, masters should be competent to: 1. describe the processes of heat and mass transfer during combustion of liquid and solid fuels in the combustion chamber; 2. apply optimization methods for fuel combustion technology, taking into account the mathematical and physical models of combustion processes in various combustion chambers; 3. evaluate the economic efficiency of technological processes and their environmental safety with the involvement of innovative technologies to improve technological processes and equipment; 4. create waste management technologies and systems for ensuring the environmental safety of production; 5. carry out modeling of objects using modern software; to formulate and justify the technical and scientific novelty of the obtained simulation results and protect their priority. During the study of the discipline masters will learn following aspects: Chemical equilibrium. Speed and order of reaction. The dependence of the reaction rate on pressure. Experimental determination of the reaction order. The connection of activation energy with the thermal effect of the reaction. Different types of ignition. Heat and heat dissipation curves; graphic solution. Stationary theory of thermal explosion: exponential decomposition; flat vessel solution; kind of equations for cylindrical and spherical vessels. Technological optimization methods. Physical models of the problem of burning various fuels. Combustion features and combustion modes of liquid and solid fuels. Mathematical models of the combustion process in the combustion chamber. Basic equations for atomization and combustion of liquid fuel. The equation of continuity. Equation of motion and the equation of internal energy.
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Modern methods of thermodynamics of irreversible processes
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: study of optimal models using the basic principles of the phenomenological theory of irreversible processes. Abstract оf discipline: Thermodynamics of irreversible processes. The principle of local equilibrium. Entropy of nonequilibrium systems. Evolution criterion for equilibrium and nonequilibrium states. Glansdorff-Prigogine theorem. Linear theory of Onsager. Principle of microscopic stability of non-equilibrium states of reversibility. Curie principle. Stability of stationary states and Le Chatelier's principle. Fluctuations and the limits of applicability of the thermodynamic method
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3D Modeling in Technical Physics
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: training in the use of computer 3D modeling methods and programming of basic mathematical algorithms for solving physical problems and processing experimental data. During the study of course, masters should be competent to: 1. evaluate the effectiveness of parameter registration and control systems for various technological processes; 2. interpret and visualize the results of 3D modeling and justify the optimal parameters of the simulated process; 3. examine the constructed model for adequacy, completeness and stability in terms of input parameters; 4. apply practical methods for determining and numerical methods for calculating rational characteristics of objects; 5. develop innovative projects for the development, implementation and commercialization of new technologies and artificial intelligence methods for solving professional problems in the field of technical and applied physics. During the study of the discipline masters will learn following aspects: Mathematical model. Basic concepts and classification. Principles and stages of mathematical modeling. Methods for solving systems of algebraic equations: a) direct methods (Gauss method, Cramer method); b) iterative methods (iteration method, Seidel method, relaxation method); c) iterative methods of the variational type; d) methods of minimizing functions. Solving nonlinear equations (simple iteration method, Newton's method, section method, interpolation methods). Methods of numerical integration and differentiation. Quadrature formulas of interpolation type. Linear integral equations (Fredholm equations, Voltaire equations), solution methods (Laplace transform, successive approximation method, resolvent method, method of reduction to an algebraic equation).
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Physical Kinetics
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: investigation of processes and phenomena occurring in a wide range of thermodynamic parameters of the state of matter, including in the region of low temperatures. During the study of course, masters should be competent to: 1. analyze and use the main provisions of thermodynamics, equations of state, stages of development of low-temperature physics, thermodynamic bases for their production, features of the behavior of substances at low temperatures, properties of basic cryogenic liquids; 2. reveal the physical essence of phenomena, the principles of their use for applied purposes; 3. design and upgrade cryogenic equipment and cryogenic vacuum systems; 4. apply rational calculation methods to determine the optimal parameters of the object, analyzing the thermal processes occurring in technological installations; 5. develop recommendations for ensuring an energy-efficient regime. During the study of the discipline masters will learn following aspects: Phase space. Microcanonical distribution. Features of quantum statistics. The law of increasing entropy. General conditions for the thermodynamic stability of an equilibrium state. Stability conditions for a homogeneous system. The equilibrium conditions of the system in an external field. Phase balance. Phase transitions. Phase transitions of the first kind. Clapeyron-Clausius equation. The balance of the three phases. Phase equilibrium diagrams. Phase diagram He4. Phase transitions of the 2nd kind. Ehrenfest equations. Critical point. The behavior of the system described by the Van der Waals equation. Relations between critical indices. Landau's theory of second-order phase transitions: order parameter, symmetry breaking, conditions for implementation, critical index values. Equilibrium conditions for phases of multicomponent systems. Gibbs phase rule.
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Experimental Thermal Physics
- Type of control: [RK1+MT+RK2+Exam] (100)
- Description: Aim оf discipline: acquisition by masters of the skills for conducting experimental studies of the thermophysical properties of various aggregate states of substances. During the study of course, masters should be competent to: 1. understand the peculiarities of thermophysical processes in various fields of physics and engineering; 2. analyze and process information on the implementation of life cycle support plans for an innovative project; 3. form preventive action measures in case of deviation of the actual progress of an innovative research project from the planned indicators; 4. apply the main methods, methods and means of obtaining, storing, processing and transmitting data using information and communication technologies; 5. develop research skills and develop new ideas for applying theoretical knowledge in practical classes (creativity). During the study of the discipline masters will learn following aspects: Methodological foundations of the experiment. Methods of experimental study of thermophysical properties of substances. Measurements and measuring devices. Electrical methods for measuring physical quantities. Temperature measurements by radiation. Measurement of pressure and vacuum. Measurement of speed, flow of liquid and gas. Optical methods for measuring flows. Measurement of heat flows. Determination of viscosity. The method of capillary. Experimental studies of diffusion. Optimization of the thermophysical experiment. Elements of experiment planning. Characteristics of research objects and tasks to be solved.
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Research
- Type of control: Защита практики
- Description: The purpose of the practice: gaining experience in the study of an actual scientific problem, expand the professional knowledge gained in the learning process, and developing practical skills for conducting independent scientific work. The practice is aimed at developing the skills of research, analysis and application of economic knowledge.
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Pedagogical
- Type of control: Защита практики
- Description: Aim оf discipline: formation of the ability to carry out educational activities in universities, to design the educational process and conduct certain types of training sessions using innovative educational technologies.