Degrees | Degrees | Competencies / areas of nuclear technologies in which graduates can work |
---|---|---|
Programs in Physics and Nuclear power engineering and technology | ||
BS/MS (eng) | Nuclear Engineering is oriented on the preparing graduates who will be able to work successfully in the areas related to design, analysis and assessment of safety and economical efficiency of contemporary and advanced nuclear power facilities. Besides, the program graduates have to possess a sufficiently wide spectrum of systematical and analytical skills, leadership and communicative competencies in order to work successfully within a team of professionals.The Program graduates have to acquire a profound knowledge and practical methodologies and tools in neutron-physical and thermal-hydraulic processes that occur in the reactor core under nominal, accidental and transient operating conditions. NPP Engineer/Operator, Nuclear Engineer for R&D organizations and regulatory bodies | 2 week practice in MEPhI resource centers and Rosatom enterprises |
Totally at MIPT | Staff members | Parttime | Total |
---|---|---|---|
Total number of academic and research staff | 570 | 431 | 1001 |
Candidate of Science | 318 | 211 | 529 |
Doctor of Science | 84 | 98 | 182 |
Acting Members of the Russian Academy of Science (RAS) | 2 | 1 | 3 |
Corresponding member of RAS | 4 | 4 | 8 |
International academic and research staff | 41 | 15 | 56 |
Degrees | Degrees. Competencies / areas of nuclear technologies in which graduates can work | Practical training in academic hours/ / the procedure practical training is organized, nuclear industry facilities where students have practical training |
---|---|---|
Programs in Physics | ||
Bachelor’s, Master’s, PhD | Nuclear and radiation safety / Problems of controlled thermonuclear fusion / Neutron studies of the structure and dynamics of condensed matter / Nuclear medicine (including the production of medical isotopes, ion beam therapy) / Radiobiological research | The training of specialists is carried out within the framework of a cycle of specialized disciplines taught by representatives of the leading specialized research institutes of the Russian Federation and industrial practice (performing research work), conducting scientific research in the base organizations of the MIPT: Nuclear Safety Institute (IBRAE) of the Russian Academy of Science / Institute for Nuclear Research (INR) of the Russian Academy of Sciences / Troitsk Institute for Innovation and Fusion Research (TRINITI JSC) of the State Atomic Energy Corporation ROSATOM / Project Center ITER (ROSATOM) / Dukhov Automatics Research Institute (VNIIA) of the State Atomic Energy Corporation ROSATOM / RFNC-VNIITF / International intergovernmental organization “Joint Institute for Nuclear Research” (JINR) / National Research Centre “Kurchatov Institute” / Institute for High Energy Physics of NRC Kurchatov Institute (IHEP) |
Programs in Nuclear power engineering and technology | ||
Master’s | Problems of controlled thermonuclear fusion |
Network Education Program | Lang | Brief description of possible career tracks |
---|---|---|
Advanced Combinatorics (01.04.02 Applied Mathematics and Informatics) | eng | / Researcher (mathematics, applied mathematics, computer science) / Software developer / algorithm designer / Analyst. The alumni of Advanced Combinatorics program work at research institutes in Germany, France, Canada, Israel (PhD/postdoc positions). |
Contemporary Combinatorics (01.04.02 Applied Mathematics and Informatics) | eng | /Mathematician (academic career) / Operation Research Researcher / Data Scientist/Data Analytics. SPHERES FOR FUTURE EMPLOYMENT / Research institutions in mathematics in computer science /Information technology companies, incl. the Program Partners (Yandex, Sberbank etc.). |
Modern State of Artificial Intelligence(01.04.02 Applied Mathematics and Informatics) | eng | Software developer, junior positions in Partners organizations – Yandex, IBM, ABBYY, Acronis, etc. |
Computer Science (01.03.02 Applied Mathematics and Informatics) | eng | MIPT graduates work in practically all fields that require critical thinking, problem solving and strong training in quantitative sciences. From software development to financial analytics. Many graduates become successful entrepreneurs, hi-tech startup founders. Positions at Yandex, 1C, ABBYY, Cognitive Technologies |
Advanced 2D Materials (12.04.03 Photonics and Optoinformatics) | eng | Postdoc positions in leading universities and research centers over the world, dealing with Physics of two-dimensional and quantum materials, as well as Computational physics methods for modeling quantum materials, micro- and nanodevices based on them |
Network Education Program | Lang | Brief description of possible career tracks |
---|---|---|
Electronics, photonics and nanotechnology (11.04.04 Electronics and Nanoelectronics) | rus | The program trains highly qualified specialists in the field of micro- and nanoelectronics, carbon nanoelectronics, non-volatile memory, display technologies, other high-tech areas of electronics, quantum-scale objects, molecular and atomistic modeling. |
Molecular Physics and Materials Sciences (03.04.01 Applied Mathematics and Physics) | rus | The program trains highly qualified specialists capable of conducting scientific research in the field of chemical and molecular physics, functional nanomaterials, renewable and electrochemical energy, high-temperature plasma, quantum-sized objects, molecular and atomistic modeling. |
Network Education Program | Lang | Brief description of possible career tracks |
---|---|---|
Sciences and Digitalization in Cultural Heritage (22.04.01 Material Science and Technologies) | rus | Graduates of the Master's program "Sciences and Digitalization in Cultural Heritage" will be in demand not only in the largest museum, exhibition and restoration centers, but also in research institutes developing new methods and tools for analyzing materials used to study and restore works of painting and sculpture. Specialists trained under this program will master new technologies and methods of analysis that can be applied to a variety of tasks in the restoration and research of works of fine art. They will master the latest advances in the fields of Сhemical Physics and Materials Sciences, local methods of substance analysis and analysis of large databases. |
Network Education Program | Lang | Brief description of possible career tracks |
---|---|---|
Integrative Structural Biology and Genetics (03.04.01 Applied Mathematics and Physics) | eng | Researcher in biophysics/ biochemistry/ bioinformatics/ genetics. Further skills development can lead to a Research Scientist position in the Research Center for Molecular Mechanisms of Aging and Age-related Diseases, MIPT. |
Network Education Program | Lang | Brief description of possible career tracks |
---|---|---|
Computer Science (01.03.02 Applied Mathematics and Informatics) | eng | MIPT graduates work in practically all fields that require critical thinking, problem solving and strong training in quantitative sciences. From software development to financial analytics. Many graduates become successful entrepreneurs, hi-tech startup founders. Positions at Yandex, 1C, ABBYY, Cognitive Technologies |
Sir Andre is a Russian, Dutch and British physicist who became a 2010 Nobel Prize Laureate in Physics.
In 2011 Queen Elizabeth II issued a decree awarding him with the title of Knight Bachelor for his services to science. He was also appointed Fellow of the Royal Society of London in 2007 and Foreign Member of the US NAS in 2012.
Graduate 1997
Konstantin is a Russian and British physicist. He became a 2010 Nobel Prize Laureate in Physics and was appointed Fellow of the Royal Society of London in 2007 and Foreign Member of the US NAS.
Serguei Beloussov
Graduate 1995Aleksandr Kaleri
Doctoral degree 1983Aleksandr is a Russian cosmonaut, who made 5 flights lasting a total of 769 days.
Mikhail Lukin
Graduate 1993Mikhail is a Russian and American scientist in the field of theoretical and experimental physics, professor of physics at Harvard University. He is included in the list of the most cited scientists in the world and his h-index is 125.
Ratmir Timashev
Graduate 1990Ratimir is a Russian businessman, the founder of Aelita Software, the founder and president of Veelam Software co-founder of the ABRT Venture Fund and was one of top-30 leading Russian IT-businessmen by Forbes.
Aleksandr Serebrov
Doctoral degree 1970Aleksandr is a Soviet cosmonaut. A hero of the USSR. He had been a record holder (up to 1997) for totalling more than 56 hours of flying time on board the Mir station and for the number of extra-vehicular activities (10 times).
Nikolay Storonsky
Graduate 2006Mohammad Mehdi Tehranchi
Doctoral degreeMohammad is a modern Iranian theoretical physicist, Acting member, scientist, professor emeritus of the Shahid Beheshti University, advisor to the head of the Center for Strategic Research of the Scientific and Technological Research Expediency Council and President of the Azad Islamic University.
David Yang
Graduate 1989David is the founder and member of the board of directors of the ABBYY group of companies. He holds Doctoral degree in Physics and Mathematics.
Eldar Akhmetgaliev
Graduate 2009Eldar is the founder of a MOCAP Analytics startup, which is now one of the best in the world in data processing based on machine learning. He works in the US Silicon Valley.
Fr. Mesrop Aramian
Graduate 1990Fr. Mesrop is an Adviser to the President of the Republic of Armenia on Education, the founder and editor-in-chief of Vem spiritual and cultural radio station and co-founder (together with Phystech graduates of different years D. Yan, A. and D. Pakhchanyans) of the Ayb educational foundation.
Aram Pakhchanyan
Graduate 1985Aram is a Vice President of the ABBYY Group of Companies and co-founder of Ayb Educational Foundation and Ayb School where he holds a position as a director. Aram was twice included in the rating of "Top-100 Russian Managers" by AMR and "Kommersant".
Stanislav Protasov
Graduate 1993Stanislav is a co-founder and senior vice president of software design and development at Acronis. He holds a Doctoral degree in physics and mathematics as well as 71 international patents. Stanislav is a co-author of container technology and one of the top CIOs by Kommersant.
Institute for High Energy Physics of NRC Kurchatov Institute (IHEP)
Degrees | Degrees. Competencies / areas of nuclear technologies in which graduates can work | Practical training in academic hours/ / the procedure practical training is organized, nuclear industry facilities where students have practical training |
---|---|---|
Programs in Nuclear power engineering and technology | ||
bachelor Nuclear Power and Thermal Physics | Graduates can work in the scientific research in nuclear energy and thermal physics), nuclear industry (nuclear energy and thermal physics), another types of professional activity in the field of research and development work. | 17 credits of practical training, including student research work and pre-diploma practice. Practice bases are Central Aerohydrodynamic Institute (Zhukovsky, Russia), Central Institute of Aviation Motors (Moscow, Russia), Kurchatov Institute (Moscow, Russia), Prokhorov General Physics Institute of the Russian Academy of Sciences (Moscow, Russia) and others |
specialist Nuclear reactors and materials | Graduates can work in the scientific research (nuclear reactors and materials), nuclear industry (using nuclear reactors and materials), another types of professional activity in the field of research and development work. | 26 credits of practical training, including student research work and pre-diploma practice. Practice bases are PJSC Mayak Machine Building Plant (Elektrostal, Russia) and Smolensk Nuclear Power Plant (Smolensk, Russia) |
master Nuclear Power and Thermal Physics | Graduates can work in the scientific research in nuclear energy and thermal physics), nuclear industry (nuclear energy and thermal physics), another types of professional activity in the field of research and development work. | 44-49 credits of practical training, including student research work and pre-diploma practice. Practice bases are Central Aerohydrodynamic Institute (Zhukovsky, Russia), Central Institute of Aviation Motors (Moscow, Russia), Kurchatov Institute (Moscow, Russia), Prokhorov General Physics Institute of the Russian Academy of Sciences (Moscow, Russia) and others |
Degrees | Degrees. Competencies / areas of nuclear technologies in which graduates can work | Practical training in academic hours/ / the procedure practical training is organized, nuclear industry facilities where students have practical training |
---|---|---|
Programs in Electric and Heat power engineering | ||
13.03.01 bachelor's degree: Program "Automation of technological processes and productions in the heat power industry" | maintenance of instrumentation, installation of measuring instruments and automation | Students undergo familiarization and production practices, including at nuclear industry facilities in the scope provided for by the standards of the high education. |
13.04.01 Master's degree: Program "Automated control systems for Heat power plants and nuclear power plants" | design, configuration and operation of automated control systems for Heat power plants and nuclear power plants | Students undergo technological and industrial practices, including at nuclear industry facilities in the scope provided for by the standards of the high education. |
13.04.01 Master's degree | 1. Able to participate in the organization and operation of control systems for technological facilities 2. Able to participate in the organization of the development, implementation and maintenance of automated process control systems, the development of measures to improve the quality of automated process control systems and its elements 3. Automated control systems for Heat and nuclear power plants | Practical training is 50 credits /production practice is carried out at nuclear power plants and in research organizations, Rusatom Automated Control System, Atomenergoproekt |
13.04.01 Master's degree:Program: “Energy supply of enterprises. Heat and mass transfer processes and installations | Able to carry out the development and modernization of Heat power and heat engineering facilities, taking into account modern problems of Heat power engineering, environmental safety and with a feasibility study for decisions made. / Development of auxiliary equipment, including for nuclear power facilities and nuclear technologies. | Practical training is organized at industrial and municipal energy enterprises. |
13.04.01 Magistracy "Energy supply of enterprises. Heat and mass transfer processes and installations" | Able to carry out the development and modernization of Heat power and heat engineering facilities taking into account modern problems of Heat power engineering, environmental safety and with a feasibility study of the decisions taken. / Development of auxiliary equipment, including for nuclear power and nuclear technology facilities. | Practical training is organized at industrial and municipal energy enterprises. |
Master's degree:Program: “Energy supply enterprises. Efficient heat and power systems” | Heat power engineering and Heat engineering, industrial Heat power engineering, work with Heat power systems and Heat mechanical equipment of a nuclear power plant, with the exception of the reactor | Nuclear power plant (practice). |
13.04.01Master's degree: Program: “Energy supply enterprises. Efficient heat and power systems” | Heat power engineering and Heat engineering, industrial Heat power engineering, work with Heat power systems and Heat mechanical equipment of a nuclear power plant, with the exception of the reactor | Nuclear power plant (practice). |
13.03.02 Bachelor’s degree | Able to participate in the design of objects of professional activity / Able to apply knowledge of the features and characteristics of the elements of electric power systems, methods of production and use of electricity in professional activities / Graduates can work at nuclear power plants in the electrical shop, in switchgear of all voltages, in design institutes | Discipline "Electric power stations and substations", 11 credits, (64 hours of practical classes, 32 hours of laboratory classes). |
13.03.02 / 13.04.02 Bachelor and Master of Engineering | Training on design, research, organizational and management activities in the field of: radiation-resistant materials, insulators and cables, including for NPP, development of electric drives of any kind, including radiation resistant drives, development of UPS, grid-inverters, medium-voltage frequency converters, and MMCs for high-voltage networks, development of electrical apparatus (contactors, circuit breakers and other), low voltage distribution switchboard, electric machines, power regulators to control energy of non-traditional energy source and power quality, development computer models to calculate magnetic, electric, heat fields for electrical equipment, development of electroHeat installations for obtaining unique materials and heat treatment, precision welding (including electron beam welding). Also competencies in the field of radiation safety (Department of Engineering Ecology and Labor Protection). | The volume of practical training in the bachelor's degree is 468 hours (production practice at enterprises in the 3 year, pre-diploma practice in the 4 year), in the master's degree 1584 hours (production practice, research and development). / VEI (now VNIITF) and others. |
Specialist degree 13.04.02 | Able to carry out research. Activities related to power plants and substations. Able to apply methods of analysis, development and justification technical solutions in projects of power plants and substations. Graduates can work at nuclear power plants, in design institutes. | Disciplines-"Methods for assessing the technical condition of electrical equipment" – 3 credits. Systems for computer-aided design of electrical installations – 4 credits.Systems for automated control and management of power plants and substations – 3 credits. Heat schemes and mode of operation of Heat power plants and nuclear power plants – 4 credits. Auxiliary systems of power plants and substations – 4 credits. Operating modes of electrical installations of power plants and substations – 4 credits. |
13.03.03 / 13.04.03 Bachelor and Master of Engineering | Use of modern design technologies, computational and experimental analysis for the development of competitive power plants, including nuclear fuel installations | Training profiles "Power plants using organic and nuclear fuel","Production of power equipment","Boilers, combustion chambers and steam generators of nuclear power plants" are designed to prepare highly qualified bachelors and masters for work at enterprises and design bureaus in the interests of nuclear energy, power engineering and mechanics.Practical training is carried out in accordance with the requirements of the federal state educational standard and the requirements of the enterprises of the State Corporation "Rosatom", where students are trained. |
Programs in Nuclear power engineering and technology | ||
14.03.01 Bachelor’s degree | 1. Able to participate in the operation and design of the main equipment of nuclear power plants and other power plants, taking into account environmental requirements and ensuring safe operation. 2. Able to calculate the characteristics of processes occurring in specific technical devices and apparatuses of nuclear power plants and other power plants. Work in the field related to nuclear power plants, nuclear power plant equipment, nuclear technologies. | Practical training is 20 credits /production practice is conducted at the NPP, OKB GIDROPRESS.Practical training is 20 credits /production practice is conducted at the NPP, OKB GIDROPRESS. |
14.04.01 Master’s degree | 1. Able to analyze and modeling physical and technological processes used in nuclear power. 2. Able to carry out computational, theoretical and experimental studies of thermohydraulic and neutron-physical processes in power equipment. 3. Able to independently determine the direction and nature of the scientific and practical work carried out, take into account current trends in the development of nuclear energy.Work in the field related to nuclear power plants , nuclear power plant equipment, nuclear technologies. | Practical training is 50 credits / production practice is carried out at nuclear power plants and in research organizations, OKB GIDROPRESS, Atomenergoproekt. |
14.03.01 / 14.04.01 Bachelor’s and Master’s degree | Design, research (heat and mass transfer), CFD modeling. | Students do internship at JSC NIKIET and at Kurchatov Institute National Research Centre. |
Bachelor’s degree. Field of study: 14.03.01 Nuclear energy and Heat physics.Name of educational program: Nuclear Power Plants and Installations | Training of specialists able to solve the scientific problems of promising energy with modern knowledge, methods and technologies. | Practice is 720 hours. Objects of atomic science as research bases: NPP, AEP, VNIIAES, IBRAE, NIKIET, etc. Nuclear industry facilities as practice bases: NPP, ASE, VNIIAES, IBRAE, NIKIET, etc. |
Field of study: 14.03.01 Nuclear energy and Heat physics. Name of the educational program: Physical-technical problems of nuclear energy | Training of Heat physicists who possess modern knowledge, methods and technologies, are able to successfully work in the field of activities related to nuclear power plants (NPPs), NPP equipment, nuclear technologies with universal and subject-specific competencies that contribute to social mobility and market stability labor. The thermophysicist is a well-educated specialist who combines fundamental physical and mathematical training with engineering knowledge and skills. | Practice 1800 hours. Nuclear industry facilities as practice bases:NPP, AEP, VNIIAES, IBRAE, NIKIET, etc. Nuclear industry facilities as practice bases: NPP, ASE, VNIIAES, IBRAE, NIKIET, etc. |
Bachelor / Master | Thermonuclear fusion | NRC “Kurchatov Institute”, “SRC RF TRINITI”. |
Degrees | Degrees. Competencies / areas of nuclear technologies in which graduates can work | Practical training in academic hours/ / the procedure practical training is organized, nuclear industry facilities where students have practical training |
---|---|---|
Programs in Physics | ||
03.03.02 Physics (Bachelor's degree) | Key competencies: use of modern methods of processing, analyzing and synthesizing physical information / ability to conduct scientific research using modern instrumentation (including complicated physical equipment) and information technologies, taking into account domestic and foreign experience | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students do internships at scientific and academic institutes, laboratories of foreign universities, industrial enterprises and research organizations. |
03.04.02 Physics (Master's degree) | Key competencies: research and development of modern hydrogen storage and transportation systems / research of defects in solids, radiation effects in condensed matter / application of methods of nuclear analysis of solids, isotopic, chemical and structural analysis by methods of atomic physics / creation of mathematical and computer models of the studied physical phenomena /identification, systematization and obtaining of necessary data in the field of professional activity with the use of modern information means and research methods in the field of condensed matter physics / application and development of new methods for experimental studies of the structure and properties of condensed matter. Masters work at enterprises producing high-tech products that require the use of plasma and radiation technologies, are engaged in science in areas of physics related to the effects of plasma and beams of charged particles on matter, diagnose, operate and repair equipment for natural gas liquefaction plants, and so on. | Practice-oriented training. In the course of training, students can participate in scientific and project activities.Students do internships at scientific and academic institutes, laboratories of foreign universities, industrial enterprises and research organizations, etc. |
Programs on Electric and Heat power engineering | ||
13.03.01 Heat and Power Engineering and Heat Engineering (Bachelor's degree) | Key competencies: development of resource-efficient solutions technologies of generation, transportation, distribution and consumption of electric and Heat energy / optimization of processes and solving technical and economic problems using information systems / use of automation tools / use of knowledge in the field of environmental technologies at heat power facilities.Heat power specialists are needed at Heat and nuclear power plants, industrial, energy and engineering companies, research and design institutes, and heat supply organizations. Depending on the chosen direction, they may specialize in the following areas: Automation of technological processes and production facilities in heat and power engineering. / Gas pumping station units. / Industrial heat power engineering. / Heat power plants. / Heat and nuclear power generating installations | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students do internships at enterprises of the energy sector, Rosatom (mainly NPPs), industrial, machine-building, space, oil and gas, metallurgical, transport, design and scientific organizations, etc. |
13.04.01 Heat and Power Engineering and Heat Engineering (Master's degree) | Depending on the training specialization, graduates may have competencies and work in the following areas: Operation and engineering of nuclear power plants (the program is aimed at training highly qualified personnel for the nuclear power industry in production, technology, research and design activities) / Automation of heat and power processes (graduates can perform a full range of work on the design, installation and operation of all levels of automated process control systems in all industries (energy, oil and gas industry, metallurgy, etc.). / Heat and nuclear power plants (masters study technological processes and systems in heat and power engineering, software and hardware information design and display tools). / Natural gas liquefaction technologies and industrial heat engineering (training of engineers and researchers in the field of industrial heat engineering for the oil and gas complex, energy, chemistry, construction and housing and communal services). / Environmentally friendly energy conversion technologies (training program in advanced solid fuel conversion technologies). / Heat power specialists are needed at Heat and nuclear power plants, industrial, energy and engineering companies, research and design institutes, and heat supply organizations. | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students do internships at enterprises of the energy sector, Rosatom (mainly NPPs), industrial, machine-building, space, oil and gas, metallurgical, transport, design and scientific organizations, etc. |
13.03.02 Electric Power Engineering and Electrical Engineering (Bachelor's degree) | Key competencies of graduates: formulation of tasks in the field of electric power and electrical engineering, their analysis and solution using all required and available resources / design of electric power and electrical systems and their components / planning and conducting experimental studies related to the determination of parameters, characteristics and condition of electrical equipment, objects and systems of electric power and electrical engineering / management of complex engineering activities in the field of electric power and electrical engineering / preparation of reports and exchange of technical information in the fields of electric power and electrical engineering / working individually and as a member or a leader of a team, including an interdisciplinary one / implementation of complex engineering activities in the field of electric power and electrical engineering, taking into account legal and cultural aspects, health and safety issues. Depending on the chosen direction, students can specialize in the following areas: High-voltage electric power and electrical engineering, / Relay protection and automation of electric power systems, / Power plants, / Electromechanical energy converters of industrial installations and vehicles, / Electrical equipment of aircrafts, / Electric drive and automation, / Power supply, /Electric power systems and electrical grids. Graduates work as engineers, designers, researchers and managers at electric power and electrical engineering enterprises, monitor the production, transmission, distribution, conversion and use of electric energy, and participate in the development of systems and devices that implement these processes. | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students do internships at enterprises of the energy sector, Rosatom (mainly NPPs), industrial, machine-building, space, oil and gas, metallurgical, transport, design and scientific organizations, etc. |
13.04.02 Power Engineering and Electrical Engineering (Master's degree) | Depending on the training specialization, graduates may have competencies and work in the following areas: Production and transportation of electric energy (graduates are well versed in statistical methods in economics, operational dispatch management in energy systems, energy conservation and energy audit of enterprises, emergency management in power systems, can use specialized software complexes for the operation of power systems, conduct research work). / Aerospace electric power engineering (The program trains specialists in aircraft electro-mechanics and electrical equipment for enterprises of the aerospace industry). / Automation of electric power stations and electric power systems (professional activity of graduates is related to the development and operation of automatic control and relay protection devices for electric power systems based on microprocessor technology). / Autonomous power supply systems and renewable energy (the program trains specialists to work on electric power and technological installations of autonomous power supply systems, including those based on nonconventional and renewable energy sources. Graduates are familiar with the technology of building autonomous power supply systems, the operation of wind turbines and solar power plants, possess the methods of computer modeling and designing systems for generating, converting and storing energy. They can operate power plants and substations, install and adjust electrical equipment, design, conduct scientific research, and teach). / High-voltage electrical engineering and technologies (training of specialists capable of collective work in the implementation of interdisciplinary projects related to the use of plasma-beam and electric discharge technologies. Currently, the program is aimed at training specialists who can participate in the development of pulsed electronic accelerators for medical applications). / High-voltage power engineering, electrical insulation and cable technology (Graduates have fundamental knowledge of the basics of electrical insulation, high-voltage and cable technology, as well as devices, operating principles and diagnostic methods for high-voltage power equipment of all voltage classes). / Mechatronic energy converters (the ability to solve “propulsion” tasks for a wide range of tasks: from electric cars and electric scooters to robotic production complexes, from medical instruments to exoskeletons and engine control systems for quadcopters). / Operational-dispatching management in power systems (Graduates ensure economically efficient operation of electrical equipment, prevent and eliminate accidents and failures in the production, conversion, transmission, distribution and consumption of electrical energy). / Optimization of developing power supply systems (The program was opened in 2019 and prepares masters for research activities on improving power supply systems, design and development of these systems and their operation). / Production and transportation of electric energy (Graduates are well versed in statistical methods in economics, operational-dispatching management in energy systems, energy conservation and energy audit of enterprises, emergency management in power systems, can use specialized software complexes for the operation of power systems, conduct research work). / Management of electric power systems modes (graduates receive competencies relevant to all segments of the electric power industry: operational-dispatching management, generation, transmission, distribution, sales, electricity consumption). / Digital energy in the oil and gas industry (improving the efficiency of existing energy hubs and enterprises in the oil and gas industry). / Electric drive and automation of technological complexes (Graduates of the program are specialists in the development, creation and research of automated electric drive systems for industrial installations and technological complexes). | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students do internships at enterprises of the energy sector, Rosatom (mainly NPPs), industrial, machine-building, space, oil and gas, metallurgical, transport, design and scientific organizations, etc. |
13.04.03 Power Engineering (Master's degree) | Graduates of the program are able to solve interdisciplinary tasks in the fields of energy and gas transport. Special attention is paid to the design and production and technological development of units and systems of gas compressor stations, Heat power plants and nuclear power plants. The competencies of organizational and managerial activities are also mastered. | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students do internships at companies in the engineering, energy industries, including nuclear power plants, the oil and gas industry, etc. |
Programs in Nuclear power engineering and technology | ||
14.03.02 Nuclear Physics and Technology (Bachelor's degree) | Depending on the chosen specialization, graduates gain practical skills in the maintenance of nuclear power installations, their design, dosimetry, nuclear materials safe handling, and gain experience in applying the achievements of nuclear and atomic physics in production and research. / Nuclear reactors and power installations (competence in the field of management of nuclear reactors and power installations, as well as teaching activities, in the field of scientific research in nuclear physics and technology. TPU also trains English-speaking specialists in the management of nuclear reactors and power installations). / Safety and non-proliferation of nuclear materials (competence in accounting, control and physical protection of nuclear materials). / Beam and plasma technologies (competencies in the field of applied physics related to the creation of ion beam and plasma technologies, modification of materials using gas-discharge low-temperature plasma, research of structural and functional properties of solids, as well as the development of low-temperature plasma, research of structural and functional properties of solids, as well as the development of vacuum ion-plasma installations). / Human and environmental radiation safety (graduates of the program are specialists in the field of nuclear and radiation safety in the atomic industry. They work at enterprises and facilities that use nuclear installations, natural and man-made sources of ionizing radiation, accelerator equipment, and at state organizations that carry out radiation control). / Physics of kinetic phenomena (graduates gain practical skills in maintaining equipment for the production of isotope separation, fine purification, and processing of substances, and gain experience in applying achievements in the field of kinetic phenomena physics, dosimetry, nuclear materials safe handling, and nuclear and atomic physics in production and research) | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students do internships mainly at Rosatom enterprises in various fields (manufacturing enterprises, NPPs, design and research organizations, engineering companies), as well as high-tech enterprises in other areas, medical and scientific organizations, etc. |
14.04.02 Nuclear Physics and Technology (Master's degree) | Masters’ field of professional activity includes research, development and technologies aimed at recording and processing information, developing theory, creating and applying installations and systems in the field of physics of nuclei, particle physics, plasma physics, condensed matter physics, separation of isotopic and molecular mixtures, physics of fast-flowing processes, radiation medical physics, radiation materials science, research of non-equilibrium physical processes, propagation and interaction of radiation with living and non-living objects, nuclear and physical installations, ensuring nuclear and radiation safety, nuclear materials safety and physical protection of nuclear facilities, control systems and automated control of nuclear and physical installations. Depending on the chosen specialization, students master competencies in the following areas: Nuclear medicine (Medical physics) (competencies in the field of research, design, organizational and managerial activities in the field of radiation oncology, as well as pedagogical activities in the field of scientific research in nuclear physics and technology. TPU, together with the Siberian State Medical University (Tomsk), has been training specialists in the field of medical physics since 2016. Classes are held in English in multinational student groups. Masters receive systematized theoretical knowledge, professional skills and abilities for independent work as a medical physicist: radiobiological foundations and radiation therapy planning, clinical application of radioisotope and X-ray diagnostics methods, the use of radionuclides and radiopharmaceuticals in diagnostics and therapy, etc.). / Nuclear power engineering (graduates are able to develop and operate safe and efficient nuclear reactors for various purposes. The field of professional interests includes modern nuclear installations for power and scientific purposes, their applications and operation features. The master is prepared for solving the problems of managing a nuclear steam generating plant, closed nuclear fuel cycles, including optimization of fuel loading and movement schemes in nuclear power reactors, spent nuclear fuel storage schemes, radiation defect formation in reactor materials, and extending the life of nuclear reactors. Since 2015, TPU has been training English-speaking specialists in this field. Students are taught in English in multinational student groups). / Safety and non-proliferation of nuclear materials (skills in performing research, design, organizational and managerial activities in the field of accounting, control and physical protection of nuclear materials and radioactive substances during storage, use and transportation at nuclear power facilities, as well as teaching activities in the field of scientific research in nuclear physics and technologies. Since 2020, TPU has been training English-speaking specialists for research, design, organizational, managerial and pedagogical activities in the field of peaceful atomic energy. Students are taught in English in multinational student groups. Students study international and national fundamentals of nuclear safety regulation, nuclear technology nonproliferation guarantees, methods and procedures for accounting and control of nuclear materials, technologies and elements of security systems, methods and devices for measuring nuclear materials, and physical protection of nuclear power facilities. / Isotope technologies and materials (The program is aimed at preparing specialists in the field of isotope separation and production of modern isotope-modified materials. In the course of their studies, masters participate in grant-supported research projects aimed at improving and creating technologies in the nuclear fuel cycle. / Nuclear and radiation safety (The program is aimed at training specialists in the field of nuclear and radiation safety at enterprises and facilities using nuclear installations, natural and man-made sources of ionizing radiation, accelerator equipment, as well as for state organizations that carry out radiation control. Objects of professional activity of the master's student: methods and programs for calculating nuclear reactors, skills in developing scenarios of radiation accidents and incidents, methods for their detection and prevention, radiation risk management, management, structuring and optimization of radiation control services of nuclear industry enterprises). | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students do internships mainly at Rosatom enterprises in various fields (manufacturing enterprises, NPPs, design and research organizations, engineering companies), as well as high-tech enterprises in other areas, medical and scientific organizations, etc. |
14.05.02 Nuclear Power Plants: Design, Operation and Engineering (Specialist-degree) | The program prepares graduates in “design and operation of nuclear power plants” profile. Graduates can work at nuclear power plants, design and research institutes, engineering companies of the nuclear industry, as well as in Heat power and any enterprise of Heat and electrical energy. Key competencies: modeling of energy conversion processes at nuclear power plants, use of automatic design systems for creating nuclear power and Heat mechanical systems and equipment / ensuring safe operation of nuclear power plants / use of environmental protection technologies. | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students do internships mainly at nuclear power plants, design and research institutes, engineering companies of the nuclear industry, as well as at Heat and electrical energy enterprises. |
14.05.04 Electronics and Automation of Physical Equipment (Specialist-degree) | Graduates work in the field of research, design, creation and operation of information and measurement systems, automated process control systems, automated research systems, computer-aided design systems and industrial control systems (ICS). They design both systems as a whole and their components. Key competencies: study of processes in physical installations, including nuclear power plants, to understand the goals and objectives of ICS / knowledge of safety techniques in the nuclear and energy industries / design of technical means for industrial control systems and robotics / study of technological processes and apparatuses of chemical industry, nuclear fuel cycle and energy industries for understanding the goals and objectives of ICS / application of knowledge, theory and practice of ICS, including mathematical, informational, algorithmic and technical support, for the maintenance of these systems. | Practice-oriented training. In the course of training, students can participate in scientific and project activities. During the training students participate in the creation of real projects on the ICS development and implementation with enterprises and scientific organizations, such as Rosatom, Roscosmos, Gazprom, as well as foreign partners. Students do internships mainly at Rosatom enterprises in various fields (manufacturing enterprises, NPPs, design and research organizations, engineering companies), as well as high-tech enterprises in other areas, medical and scientific organizations, etc. |
Programs in Chemical Technology | ||
18.03.01 Chemical Engineering (Bachelor's degree) | The training program is aimed at training in the field of creating new substances and materials, processing raw materials. There are two directions in the program. The first one is related to the development of new materials for microelectronics, oil and gas production, metallurgy, construction, and medicine. The second one is related to the development and operation of equipment for chemical, petrochemical and other industries. Depending on the chosen specialization, bachelors master competencies about one of the following areas: Analytical control in the chemical industry / Machines and apparatuses of chemical production / Processes and apparatuses of chemical technologies / Technology of oil and gas chemistry and polymer materials - Technology of oil and gas preparation and processing / Chemical technology of ceramic and composite materials. | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students do internships mainly at chemical, chemical-pharmaceutical and petrochemical enterprises, the oil and gas industry, etc. |
18.04.01 Chemical Technology (Master's degree) | Training of specialists with competencies in the creation, research and technological support of the ceramic and composite materials production, with knowledge of the scientific foundations of the technology of materials from traditional and new types of raw materials. Graduates have the opportunity to work in enterprises of various industries from refractory production to the oil industry. Depending on the chosen specialization, students master competencies about one of the following areas: Processes and apparatuses for processing mineral and man-made raw materials (competence in the field of production and development of technologies and apparatuses for processing mineral and man-made raw materials) / Chemical Engineering, Chemical technology of ceramics and composite materials (competencies in the development, research and production of ceramic and composite materials) / Chemistry and technology of biologically active substances (competence in the development of biological active substances used as medicines). | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students do internships mainly at chemical and petrochemical enterprises, etc. |
18.05.02 Chemical Technology of Materials in Modern Power Engineering (Specialist degree) | TPU is the only university in the Asian part of Russia that trains engineers with competencies in the field of chemical technology of rare, trace, radioactive and precious elements. Key competencies: technological: ability to develop and improve technological schemes and technical processes, perform calculations of technological parameters and equipment of production facilities in the rare metal and gold processing industries, including digital technologies implementation / research: ability to develop plans, programs, and methods for experimental research of rare, trace, and radioactive elements and related technological processes, create theoretical models for predicting the properties of materials in modern power engineering / project-based: ability to perform an engineering project that meets the requirements of technical documentation, develop and execute design documentation / organizational and managerial: ability to manage technical administration in accordance with regulatory documents (safety, product quality control, etc.), using knowledge in the field of project management. | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students do internships at industrial enterprises, mainly in Rosatom, Kazatomprom, at facilities for mining and processing of rare, non-ferrous and noble metals, as well as participate in research and development work, the results of which are in demand and used at the enterprises of the real economy sector, etc. |
Programs in Material Science | ||
22.03.02 Metallurgy (Bachelor's degree) | The training program is aimed at training highly qualified personnel in the field of steel electrometallurgy and ferroalloy production for modern high-tech enterprises engaged in the development and implementation of new metallurgical technologies.The training program includes the universality of a complex of knowledge in the field of metallurgy and materials science, computer modeling and automation of metallurgical processes. | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students do internships mainly at mechanical engineering enterprises and metallurgical plants. |
22.03.01 Materials Science and Technology (Bachelor's degree) | The program is aimed at developing competencies in the field of software engineering (creating new and improving existing materials, participating in research, testing and development of technologies for the production of new materials, coating processing and process control systems). Materials scientists are in demand in a wide variety of fields: construction, energy, mechanical engineering, space, and defense industries. | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students practice mainly at industrial enterprises, scientific and design institutes. |
22.04.01 Materials Science and Materials Technology (Master's degree) | In accordance with the chosen specialization, students master competencies that allow them to carry out professional activities in one of the following areas: Materials science and development of new materials (in the field of materials science, aimed at the development, research and production of materials and products based on metal, ceramic and polymer bases for the needs of high-tech industries) / Manufacturing of nanostructured products made of materials and additive technologies (the ability to develop and implement technologies for the manufacture of ceramic and composite products made of nano- and microdispersed powders) / Technology design (mastering and developing new production technologies at enterprises of the machine-building and energy complexes, knowledge of the scientific fundamentals of materials and technological processes for the manufacturing of products made of new materials). Materials scientists are in demand in a wide variety of fields: construction, energy, mechanical engineering, space, and defense industries. | Practice-oriented training. In the course of training, students can participate in scientific and project activities. Students practice mainly at industrial enterprises, scientific and design institutes. |
Degrees | Degrees. Competencies / areas of nuclear technologies in which graduates can work | Practical training in academic hours/ / the procedure practical training is organized, nuclear industry facilities where students have practical training |
---|---|---|
Programs in Electric and Heat power engineering | ||
Bachelor's Programme, Master's Programme | Professional activity fields: nuclear industry (in the field of calculation of regimes and operation of nuclear power plants). Competencies:1. Ready to evaluate the technological parameters of the equipment of professional activity objects. 2. Able to calculate the operating modes of professional activity objects. 3. Ready to provide the required modes and specified parameters of the technological process according to the specified methodology. / Tasks to be solved: 1. Evaluating and calculating technological parameters of schemes and equipment of nuclear power plants. 2. Calculating operating modes of electrical equipment. 3. Controlling operating modes of circuits and technological equipment of NPP according to a given methodology. 4. Ensuring safe production at nuclear power plants. / Professional activity fields: nuclear industry (in the field of designing the electrical part of nuclear power plants). Competencies:1. Able to participate in the design of professional activity objects. 2. Able to find the grounds for design decisions in the field of professional activity. / Tasks to be solved: 1. Collecting and analysing data for the design of nuclear power plants. 2. Participating in making calculations and finding grounds for the design and working drawings of the NPP based on standard methods. 3. Developing schemes of electrical connections and schemes of NPP auxiliaries. 4. Participating in NPP calculations and design by employing standard design automation tools. / Professional activity fields: nuclear industry (in the field of operation of Heat mechanical and heat exchange main and auxiliary equipment). Competences and tasks to be solved: 1. Analysing technological processes and methods of operation of Heat mechanical and heat exchange main and auxiliary equipment of nuclear power plants, its characteristics in possible operating modes, controlled parameters of the technological process, algorithms of control systems for Heat mechanical and heat exchange equipment in order to ensure their efficient and safe operation. 2. Working with specification documents and operational documentation. 3. Applying methodology for performing measurements to control the operation of process equipment and metrological support of the process. 4. Selecting necessary technical means for measuring and controlling the main parameters of the technological process. 5. Diagnosing the state of Heat mechanical and heat exchange equipment. | The volume of practical training is more than 500 academic hours (bachelor's degree) and more than 1000 academic hours (master's degree). Field and local training take place. Training is realised at Heat and nuclear power plants, design, installation and repair organizations. During training courses, students complete real production tasks |
Additional professional education | Professional retraining program is aimed at improving or gaining new competencies that are necessary for professional activities, acquiring knowledge, skills and abilities in the field of operation and organization of the main and auxiliary equipment of Heat and nuclear power plants, including: 1. Applying skills and abilities to operate power equipment in various conditions. 2. Ability to analyse technological processes and algorithms of control systems of Heat power plants in order to ensure their efficient and safe operation. 3. Readiness to ensure optimal operating modes of the main and auxiliary power equipment in various operating modes. The program is realised taking into account new scientific developments within the framework of the project "Developing theoretical creation foundations and designing applied software tools for the implementation of modelling and training complexes for heat and electric power generation facilities equipment." | Practical part of the program is implemented on the equipment of the Centre for Digital Simulators of Power Equipment and the Centre for High-Performance Computing Systems, where specialized software is installed. |
Programs in Nuclear power engineering and technology | ||
Specialist Degree Programme | Professional activity fields:nuclear industry (in the field of using nuclear power plants:design,operation and engineering).Competences and tasks to be solved: 1. Formulating the goals of the project, developing technical requirements and assignments. 2. Developing projects for equipment elements, technological systems, monitoring and control systems in accordance with technical requirements. 3. Developing design and working technical documentation. 4. Analysing processes in the equipment and algorithms of control systems of nuclear power plants in order to ensure their efficient and safe operation. 5. Ensuring optimal operating modes of the nuclear reactor, Heat mechanical equipment and the power unit of the nuclear power plant as a whole during start-up, shutdown, power operation and transition from one power level to another following safety requirements. | The volume of practical training is more than 1300 academic hours.Field and local training take place.Training is held at nuclear power plants, design, installation and repair organizations. During training courses, students complete real production tasks. |
Family name, first name, patronimic | Place of Employment | Position |
---|---|---|
BLOKHIN Alexander Viktorovich | Embassy of the Russian Federation in Turkmenistan | Extraodinary and plenipotentiary ambassador of the Russian Federation in Turkmenistan |
GURYLEV Oleg Yurievich | Branch "Kaliningrad TPP-2".JSC "Inter RAO - Electrogeneratsiya" | Director |
DENISOV Dmitry Gennadievich | Government of the Russian Federation | Assistant to the First Deputy Prime Minister of the Russian Federation |
DOBROV Sergey Vyacheslavovich | PJSC "T Plus", branch "Komi" | Branch manager |
ZHURAVLEV Alexey Evgenievich | PJSC Ivelectronaladka | CEO |
ZHURAVLEV Evgeny Konstantinovich | PJSC Ivelectronaladka | Chairman of the Board of Directors |
KOPSOV Anatoly Yakovlevich | K-Energo LLC, Moscow | |
KOSITSKY Timofey Anatolievich | JSC CONCERN ROSENERGOATOM"Kalinin Nuclear Power Plant" | Deputy Director in Economics and Finance |
LEBEDEV Grigory Borisovich | Verkhnevolzhsky SMC LLC | Chief Engineer |
LYAPUNOV Evgeny Viktorovich | Main electrical networks of the Centre | First Deputy General Director |
Meshkov Andrey Vyacheslavovich | JSC INTER RAO - Electrogeneratsiya"Kostroma GRES" | Chief Engineer |
PETROV Andrey Yuvenalyevich | JSC "Concern ROSENERGOATOM" | CEO |
RASSTRIGIN Mikhail Alekseevich | Ministry of Economic Development.System Operator of the Unified Energy System | Deputy Minister of Economic Development of the Russian Federation.First Vice President of the Centre for Strategic Research Foundation,Head of the Centre for Economic Analysis and Forecasting |
SVETUSHKOV Valery Valerievich | LLC INTER RAO - Power Generation Management | Deputy General Director for Modernization, Localization and New Constructing |
SPIRIDONOV Mikhail Sergeevich | LLC "Building Structures Plant", Ivanovo | CEO |
Sharipov Vladimir Nikolayevich | Ivanovo | Mayor |
SHUBIN Alexander Borisovich | Neurosoft LLC | President |
Degrees | Competencies | Content of practical field experience |
---|---|---|
Programs in Physics | ||
bachelor | Universal Competency-1 - Able to search, critical analysis and synthesis of information, apply a systematic approach to solve tasks. Universal Competency-2 - Able to determine the range of tasks within the framework of the goal and choose the best ways to solve them, based on current legal regulations, available resources and restrictions. Universal Competency-3 - Able to carry out social interaction and realize his/her role in the team. Universal Competency-4 - Able to carry out business communication in oral and written forms in the official language of the Russian Federation and foreign language(s). Universal Competency-5 - Able to perceive the intercultural diversity of society in the socio-historical, ethical and philosophical contexts. Universal Competency-6 - Able to manage his/her time, build and implement a trajectory of self-development based on the principles of education throughout life. Universal Competency-7 - Able to maintain the proper level of physical fitness to ensure full-fledged social and professional activities. Universal Competency-8 - Able to create and maintain safe living conditions in everyday life and in professional activities to preserve the natural environment, ensure the sustainable development of society, including in the event of a threat and the occurrence of emergencies and military conflicts. Universal Competency-9 - Able to use basic defectological knowledge in social and professional areas. Universal Competency-10 - Able to make informed economic decisions in various areas of life. Universal Competency-11 - Able to form an intolerant attitude towards corrupt behavior. General Professional Competency-1 - Able to apply basic knowledge in the field of physical and mathematical and (or) natural sciences in the area of his/her professional activity. General Professional Competency-2 - Able to conduct scientific research of physical objects, systems and processes, process and present experimental data. General Professional Competency-3 - Able to understand the principles of operation of modern information technologies and use them to solve problems of professional activity. Professional Competency-1 - Able to use specialized knowledge in the field of physics for the mastering of specialized physical disciplines. Professional Competency-2 - Able to apply professional knowledge and skills obtained throughout mastering the specialized disciplines in research activities, in carrying out research, scientific innovation and practical projects. Professional Competency-3 - Able to conduct scientific research using modern instrumentation, complex physical equipment and information technology, taking into account domestic and foreign experienceа. Professional Competency-4 - Able to select the necessary scientific research methods to solve the problems of professional activity. Graduates can work in the following areas of nuclear technology: new structural materials, immobilization of highly active components of radioactive waste | 17 credits (612 ac. hours) / Students undertake an internship on the basis of educational and scientific laboratories of the Department of Physical Materials Science and scientific laboratories of NRIPHT UNN |
bachelor | Universal Competency-1 - Able to search, critical analysis and synthesis of information, apply a systematic approach to solve tasks. Universal Competency-2 - Able to determine the range of tasks within the framework of the goal and choose the best ways to solve them, based on current legal regulations, available resources and restrictions. Universal Competency-3 - Able to carry out social interaction and realize his/her role in the team. Universal Competency-4 - Able to carry out business communication in oral and written forms in the official language of the Russian Federation and foreign language(s). Universal Competency-5 - Able to perceive the intercultural diversity of society in the socio-historical, ethical and philosophical contexts. Universal Competency-6 - Able to manage his/her time, build and implement a trajectory of self-development based on the principles of education throughout life. Universal Competency-7 - Able to maintain the proper level of physical fitness to ensure full-fledged social and professional activities. Universal Competency-8 - Able to create and maintain safe living conditions in everyday life and in professional activities to preserve the natural environment, ensure the sustainable development of society, including in the event of a threat and the occurrence of emergencies and military conflicts. Universal Competency-9 - Able to use basic defectological knowledge in social and professional areas. Universal Competency-10 -Able to make informed economic decisions in various areas of life. Universal Competency-11 - Able to form an intolerant attitude towards corrupt behavior. General Professional Competency-1 - Able to apply basic knowledge in the field of physical and mathematical and (or) natural sciences in the area of his/her professional activity. General Professional Competency-2 - Able to conduct scientific research of physical objects, systems and processes, process and present experimental data. General Professional Competency-3 - Able to understand the principles of operation of modern information technologies and use them to solve problems of professional activity. Professional Competency-1 - Able to master the principles of operation and methods of operation of modern and promising radio-electronic, optical and acoustic equipment. Professional Competency-2 - Able to master and apply modern and promising methods for theoretical and experimental research in the field of radiophysics. Professional Competency-3 - Able to process, formalize and present the results of research and development in the field of radiophysics. Graduates can work in the following areas of nuclear technology: the study of physical processes in semiconductor devices and materials under the influence of radiation | 15 credits (540 ac. hours) / Students undertake an internship on the basis of educational and scientific laboratories of the Department of Physical Materials Science and scientific laboratories of NRIPHT UNN |
master | Universal Competency-1 - Able to carry out a critical analysis of problem situations based on a systematic approach, develop an action strategy. Universal Competency-2 - Able to manage a project at all stages of its life cycle. Universal Competency-3 - Able to organize and manage the work of the team, developing a team strategy to achieve the goal. Universal Competency-4 - Able to apply modern communication technologies, including in a foreign language(s), for academic and professional interaction. Universal Competency-5 - Able to analyze and take into account the diversity of cultures in the process of intercultural communication. Universal Competency-6 - Able to determine and implement the priorities of their own activities and ways to improve them based on self-assessment. General Professional Competency-1 - Able to apply fundamental knowledge in the field of physics to solve research problems, as well as master the basics of pedagogy necessary for teaching. General Professional Competency-2 - Able to organize independent and collective research activities for the search, development and decision-making in the field of physics. General Professional Competency-3 - Able to apply knowledge in the field of information technology, use modern computer networks, software products and resources of the information and telecommunication network "Internet". General Professional Competency-4 - Able to determine the scope of implementation of the results of scientific research in the field of his/her professional activity. Professional Competency-1 - Able to independently set specific tasks of scientific research in the field of physics and solve them with the help of modern equipment and information technologies using the latest Russian experience. Professional Competency-2 - Able to independently analyze, not biased to evaluate and navigate the advanced theoretical concepts and achievements of modern physics. Professional Competency-3 - Able to be fluent in the sections of physics necessary for solving scientific and innovative problems, and to apply the results of scientific research in innovative and project activities. Professional Competency-4 - Able to take part in the development of new methods and methodological approaches in scientific and innovative research and engineering and technological activities. Professional Competency-7 - Able to plan and organize physical research, scientific seminars and conferences. Professional Competency-8 - Able to use the skills of compiling and designing scientific and technical documentation, scientific reports, reviews and articles. Graduates can work in the following areas of nuclear technology: new structural materials, immobilization of highly active components of radioactive waste | 54 credits (1944 ac. hours) / Students undertake an internship on the basis of educational and scientific laboratories of the Department of Physical Materials Science and scientific laboratories of NRIPHT UNN |
master | Universal Competency-1 - Able to carry out a critical analysis of problem situations based on a systematic approach, develop an action strategy. Universal Competency-2 - Able to manage a project at all stages of its life cycle. Universal Competency-3 - Able to organize and manage the work of the team, developing a team strategy to achieve the goal. Universal Competency-4 - Able to apply modern communication technologies, including in a foreign language(s), for academic and professional interaction. Universal Competency-5 - Able to analyze and take into account the diversity of cultures in the process of intercultural communication. Universal Competency-6 - Able to determine and implement the priorities of their own activities and ways to improve them based on self-assessment. General Professional Competency-1 - Able to apply fundamental knowledge in the field of physics and radiophysics to solve research problems, including in the field of teaching. General Professional Competency-2 - Able to determine the scope of implementation of the results of applied scientific research in the field of his professional activity. General Professional Competency-3 - Able to apply modern information technologies, use computer networks and software products to solve problems of professional activity. Professional Competency-1 - Able to analyze and process scientific information and research results in the field of quantum radiophysics, laser physics and photonics in solving problems of his/her professional activity. Professional Competency-2 - Able to carry out theoretical and experimental research on certain sections of the topics of research works in the field of quantum radiophysics, laser physics and photonics and formalize their results. Professional Competency-3 - Able to develop and prepare component parts of documentation, draft plans and programs for carrying out individual stages of research. Professional Competency-4 - Able to conduct pedagogical activities in the design and implementation of educational programs at all levels of education in the field of physics and radiophysics.Graduates can work in the following areas of nuclear technology: radiation resistance of promising semiconductor nanostructures and devices based on them, microwave diagnostics of fast processes, laser physics | 54 credits (1944 ac. hours) / Students undertake an internship on the basis of educational and scientific laboratories of the Department of Physical Materials Science and scientific laboratories of NRIPHT UNN |
Programs in Chemistry | ||
bachelor | Universal Competency-1 - Able to search, critical analysis and synthesis of information, apply a systematic approach to solve tasks. Universal Competency-2 - Able to determine the range of tasks within the framework of the goal and choose the best ways to solve them, based on current legal regulations, available resources and restrictions. Universal Competency-3 - Able to carry out social interaction and realize his/her role in the team. Universal Competency-4 - Able to carry out business communication in oral and written forms in the official language of the Russian Federation and foreign language(s). Universal Competency-5 - Able to perceive the intercultural diversity of society in the socio-historical, ethical and philosophical contexts. Universal Competency-6 - Able to manage his/her time, build and implement a trajectory of self-development based on the principles of education throughout life. Universal Competency-7 - Able to maintain the proper level of physical fitness to ensure full-fledged social and professional activities. Universal Competency-8 - Able to create and maintain safe living conditions in everyday life and in professional activities to preserve the natural environment, ensure the sustainable development of society, including in the event of a threat and the occurrence of emergencies and military conflicts. Universal Competency-9 - Able to make informed economic decisions in various areas of life. Universal Competency-10 - Able to form an intolerant attitude towards corrupt behavior. General Professional Competency-1 - Able to analyze and interpret the results of chemical experiments, observations and measurements. General Professional Competency-2 - Able to conduct a chemical experiment in compliance with safety standards, including synthesis, analysis, study of the structure and properties of substances and materials, study of processes with their participation. General Professional Competency-3 - Able to apply calculation and theoretical methods to study the properties of substances and processes with their participation using modern computer technology. General Professional Competency-4 - Able to plan chemical work, process and interpret the results obtained using theoretical knowledge and practical skills in solving mathematical and physical problems. General Professional Competency-5 - Able to understand the principles of modern information technology and use them to solve problems of professional activity. General Professional Competency-6 - Able to present the results of his/her work orally and in writing in accordance with the rules and regulations adopted in the professional community. General Professional Competency-7 - Able to conduct innovative business activities. Professional Competency-1-(n) - Able to choose and use technical means and test methods to solve chemical research problems set by a specialist of a higher qualification. Professional Competency-2-(n) - Able to provide information support to specialists engaged in research work. Professional Competency-3-(n) - Able to control the quality of substances and materials. Professional Competency-1-(p) - Able to carry out professional activities in accordance with the legal and moral and ethical standards of professional ethics. Professional Competency-2-(p) - Able to participate in the development of basic and additional educational programs, develop their individual components (including using IT). Professional Competency-3-(p) - Able to organize joint and individual educational activities of students, including those with special educational needs, in accordance with the requirements of the Federal State Educational Standard. Professional Competency-1-(o) - Able to organize the work of a small workforce to solve current problems of research with the provision of safe working conditions. Professional Competency-1-(t) - Able to choose technical means and test methods for solving technological problems set by a specialist of a higher qualification. Graduates can work in the field of nuclear energy, environmental and radiation safety. | 31 credits (1116 ac. hours) / Individual tasks for internships at nuclear industry enterprises are worked out on an individual basis |
master | Universal Competency-1 - Able to carry out a critical analysis of problem situations based on a systematic approach, develop an action strategy. Universal Competency-2 - Able to manage a project at all stages of its life cycle. Universal Competency-3 - Able to organize and manage the work of the team, developing a team strategy to achieve the goal. Universal Competency-4 - Able to apply modern communication technologies, including in a foreign language(s), for academic and professional interaction. Universal Competency-5 - Able to analyze and take into account the diversity of cultures in the process of intercultural communication. Universal Competency-6 - Able to determine and implement the priorities of their own activities and ways to improve them based on self-assessment. General Professional Competencies ОС-5 - Able to organize and conduct innovative business activities. General Professional Competencies-1 - Able to perform complex experimental and computational-theoretical research in the chosen field of chemistry or related sciences using modern instruments, software and databases for professional purposes. General Professional Competencies-2 - Able to analyze, interpret and generalize the results of experimental and computational-theoretical work in the chosen field of chemistry or related sciences. General Professional Competencies-3 - Able to use computational methods and adapt existing software products to solve problems of professional activity. General Professional Competencies-4 - Able to prepare publications, participate in professional discussions, present the results of professional activities in the form of scientific and popular science reports. Professional Competency-1-(vms) - Able to use modern methods of synthetic organic chemistry to obtain macromolecular compounds. Professional Competency-1-(n) - Able to plan work and choose adequate methods for solving research problems in the chosen field of chemistry, chemical technology and/or sciences related to chemistry. Professional Competency-1-(o) - Able to organize the work of the team to solve research problems in the chosen field of chemistry, chemical technology and / or sciences related to chemistry, prepare regulatory and reporting documentation. Professional Competency-1-(t) - Able to determine the ways, methods and means of solving technological problems within the framework of applied research in the selected field of chemistry, chemical technology and / or sciences related to chemistry. Professional Competency-2-(n) - Able to conduct information research in the chosen field of chemistry, chemical technology and/or sciences related to chemistry. Professional Competency-3-(n) - Based on a critical analysis of the results of research and development, able to assess the prospects for their practical application and continuation of work in the chosen field of chemistry, chemical technology and / or sciences related to chemistry. Graduates are able to work in the fields of nuclear energy, environmental and radiation safety | 45 credits (1620 ac. hours) / Individual tasks for internships at nuclear industry enterprises are worked out on an individual basis |
specialist | Universal Competency-1 - Able to carry out a critical analysis of problem situations based on a systematic approach, develop an action strategy. Universal Competency-2 - Able to manage a project at all stages of its life cycle. Universal Competency-3 - Able to organize and manage the work of the team, developing a team strategy to achieve the goal. Universal Competency-4 - Able to apply modern communication technologies, including in a foreign language(s), for academic and professional interaction. Universal Competency-5 - Able to analyze and take into account the diversity of cultures in the process of intercultural communication. Universal Competency-6 - Able to determine and implement the priorities of their own activities and ways to improve them based on self-assessment. Universal Competency -7 - Able to maintain the proper level of physical fitness to ensure full-fledged social and professional activities. Universal Competency -8 - Able to create and maintain safe living conditions in everyday life and in professional activities to preserve the natural environment, ensure the sustainable development of society, including in the event of a threat and the occurrence of emergencies and military conflicts. Universal Competency -9 - Able to make reasonable economic decisions in various areas of life. Universal Competency -10 - Able to form an intolerant attitude towards corrupt behavior. General Professional Competencies-1 - Able to analyze, interpret and generalize the results of experimental and computational-theoretical works of a chemical nature. General Professional Competencies-2 - Able to conduct a chemical experiment using modern equipment, observing safety standards. General Professional Competencies-3 - Able to apply computational and theoretical methods to study the properties of substances and processes with their participation, using modern software and databases for professional purposes. General Professional Competencies-4 - Able to plan chemical work, process and interpret the results obtained using theoretical knowledge and practical skills in solving mathematical and physical. General Professional Competencies-5 - Able to understand the principles of information technology, use information databases and adapt existing software products to solve problems of professional activity, taking into account the basic requirements of information security. General Professional Competencies-6 - Able to present the results of professional activity in oral and written form in accordance with the norms and rules adopted in the professional community. General Professional Competencies ОС-7 – Able to conduct innovative business activities. Professional Competency-1-(n) - Able to plan work and choose adequate methods for solving research problems in the chosen field of chemistry and/or sciences related to chemistry. Professional Competency-2-(n) - Able to conduct informational research in the chosen field of chemistry and/or sciences related to chemistry. Professional Competency-3-(n) - Based on a critical analysis of the results of research and development, able to evaluate the prospects for their practical application and the continuation of work in the chosen field of chemistry and / or sciences related to chemistry. Professional Competency-1-(nh) - Able to use modern chemical methods for obtaining and analyzing inorganic substances and materials. Professional Competency-1-(o) - Able to organize the work of the team to solve research problems in the chosen field of chemistry, prepare regulatory and reporting documentation. Professional Competency-1-(p) - Able to carry out professional activities in accordance with the legal and moral and ethical standards of professional ethics. Professional Competency-2-(p) - Able to participate in the development of basic and additional educational programs, develop their individual components (including using ICT). Professional Competency-3-(p) - Able to organize joint and individual educational and educational activities of students, including those with special educational needs, in accordance with the requirements of the Federal State Educational Standard. Professional Competency-1-(t) - Able to determine the ways, methods and means of solving technological problems within the framework of applied research in the chosen field of chemistry. Graduates are able to work in the fields of nuclear energy, environmental and radiation safety | 56 credits (2016 ac. hours) / Individual tasks for internships at nuclear industry enterprises are worked out on an individual basis |
№п/п | Level of education | the code of the direction / area of training | Major | The name of the program |
---|---|---|---|---|
International and professional public accreditation, the accrediting organization is an autonomous non-profit organization "National Center for Professional Public Accreditation" | ||||
EGSDT 03.00.00 | ||||
1 | Undergraduate | 03.03.02 | Physics | Fundamental physics |
2 | Undergraduate | 03.03.02 | Physics | Теоретическая физика |
3 | Undergraduate | 03.03.02 | Physics | Physics of engineered materials: metals, alloys and ceramics |
4 | Undergraduate | 03.03.02 | Physics | Crystal Physics |
5 | Graduate | 03.04.02 | Physics | General and applied physics |
6 | Graduate | 03.04.02 | Physics | Condensed matter physics |
7 | Graduate | 03.04.02 | Physics | Theoretical and Mathematical Physics |
8 | Graduate | 03.04.02 | Physics | Physics of engineered materials: metals, alloys and ceramics |
9 | Graduate | 03.04.02 | Physics | Physics Teaching Methods |
EGSDT 04.00.00 | ||||
10 | Undergraduate | 04.03.01 | Chemistry | Chemistry and Materials Science |
11 | Graduate | 04.03.01 | Chemistry | Analytical Chemistry and Ecology |
12 | Graduate | 04.03.01 | Chemistry | Inorganic chemistry |
13 | Graduate | 04.03.01 | Chemistry | Inorganic Materials |
14 | Graduate | 04.03.01 | Chemistry | Petrochemistry |
15 | Graduate | 04.03.01 | Chemistry | Organic and Medicinal Chemistry |
16 | Graduate | 04.03.01 | Chemistry | Organic and Pharmaceutical Chemistry |
17 | Graduate | 04.03.01 | Chemistry | Physical Chemistry |
18 | Graduate | 04.03.01 | Chemistry | Macromolecular Compounds Chemistry |
19 | Graduate | 04.03.01 | Chemistry | Solid State Chemistry and Radiochemistry |
20 | Specialist | 04.05.01 | Fundamental and Applied Chemistry | Inorganic Chemistry |
21 | Specialist | 04.05.01 | Fundamental and Applied Chemistry | Organic Chemistry |
Degrees | Competencies / areas of nuclear technologies in which graduates can work | Practical training in academic hours/ / the procedure practical training is organized, nuclear industry facilities where students have practical training |
---|---|---|
Programs in Electrical and Heat power engineering | ||
Bachelor’s degree program | Training program 13.03.01 Able to apply in professional activities the knowledge of the basics of Heat mechanics, electrical engineering, hydraulics, the properties of structural materials, taking into account dynamic and Heat capacity and the organization of the technological process for the production of Heat and electrical energy in various operating modes of Heat power plants and nuclear power plants. Operation and maintenance of equipment and pipelines, fixed assets of the turbine department of nuclear power plants. Graduates can work in the nuclear industry (in the field of operation of Heat mechanical and heat exchange main and auxiliary equipment).Training programs 13.03.02, 13.03.03 Mathematical modeling of processes and objects based on standard packages of applied programs for computer-aided design and research. Calculation and design of technical objects in accordance with the terms of reference using standard design automation tools.Areas of professional activity-shipbuilding, production of fiber-optic cables,design and operation of electric power systems, electrical complexes, power supply systems, automation and mechanization of production. | 1543 h. / Practical training: practical exercises, laboratory work, course projects, graduate qualification work, practical training during the practice,Federal State Unitary Enterprise "RFNC-VNIIEF", JSC "Russian concern for the production of electrical and Heat energy at nuclear power plants" (Leningrad NPP), Branch of “RFNC-VNIIEF” - "NIIIS n.a. Yu.E. Sedakov" |
Master’s degree program | Training program 13.04.01 Carrying out research and development work while investigating, ensuring the safe operation of equipment, pipelines and heating networks of nuclear power plants. Areas of professional activity: ensuring the safe operation of equipment operating under excessive pressure, Nuclear industry in the field of operation of Heat mechanical and heat exchange main and auxiliary equipment. Training program 13.04.02 Development of a project for an automated process control system, Implementation of scientific guidance in the relevant field of knowledge. Areas of professional activity: production of fiber-optic cables, design and operation of electric power systems, electrical complexes, power supply systems, automation and mechanization of production.Training program 13.04.03 Organization of testing and research of automatic telephone systems and their component | 2232 h. / Practical training: practical exercises, laboratory work, course projects, graduate qualification work, practical training during practical work, JSC “Atomenergoproekt” |
Programs in Electrical and Heat power engineering | ||
Bachelor’s degree program | Training programs 14.03.01, 14.03.02 Engineering and physical support for the operation of the reactor core, the use of methods of neutron-physical and Heat-hydraulic measurements in the reactor facility. Application of information technologies in the development of new installations, materials and devices. Areas of professional activity: Nuclear industry (in the field of nuclear energy and Heat physics). | 964 hours / Practical training: practical exercises, laboratory work, course projects, graduate qualification work, practical training during the practice-JSC “Afrikantov OKBM”, Federal State Unitary Enterprise “RFNC-VNIIEF”, JSC“Atomenergoproekt”. |
Master’s degree program | Training programs 14.04.01, 14.04.02 Management of engineering and physical support and control of nuclear safety, reliability and economic efficiency during operation, repair, refueling and start-up of the reactor plant. Able to apply modern developments in the field of nuclear technologies, scientific and technical policy of the nuclear sphere of activity in his professional activities. | 1756 h. / Practical training: practical exercises, laboratory work, course projects, graduate qualification work, practical training during the practice."Russian concern for the production of electrical and Heat energy at nuclear power plants" (Kola NPP), JSC "Afrikantov OKBM", Federal State Unitary Enterprise "RFNC-VNIIEF", JSC"Atomenergoproekt". |
Specialist’s degree program | Training programs 14.05.01, 14.05.02 Control of ensuring nuclear, radiation, technical, fire safety, labor protection requirements when working with fresh and spent nuclear fuel in the process of generating electrical and Heat energy at nuclear power plants. Creates theoretical and mathematical models of processes in nuclear reactors. Uses regularities of neutron-physical processes in reactors, processes of hydrodynamics and heat and mass transfer in active zones, accounting system, control of nuclear materials, ionizing radiation on materials, humans and environmental objects, accounting systems, control of nuclear materials. Develops new methods for calculating modern reactor installations and physical devices, methods for studying thermophysical processes and properties of reactor materials and coolants, methods and techniques for assessing the quantitative characteristics of nuclear materials. Development of directions for applied research and development work to improve nuclear energy technologies and management of the activities of subordinate personnel in their implementation. Areas of professional activity: nuclear industry (in the field of use of nuclear reactors and materials, use of nuclear power plants: design, operation and engineering). | 1852 hour./ Practical training: practical exercises, laboratory work, course projects, graduate qualification work, practical training during the practice-Federal State Unitary Enterprise RFNC-VNIIEF, JSC Russian Concern for the Production of Electrical and Heat Energy at Nuclear Power Plants (Leningrad NPP, Kola NPP), JSC “Atomenergoproekt”, JSC “Afrikantov OKBM”. |
Programs in Chemical Technology | ||
Bachelor’s degree program | Training program 18.03.01 Able to carry out physical and chemical analyzes of materials, to carry out work on the study of the properties of materials. Carries out the organization of works on electrochemical protection against corrosion of structures and structures. A graduate who has mastered the program can carry out professional activities: in chemical, chemical and technological production (in the following areas: production of inorganic substances, production of products of basic and fine organic synthesis, production of oil, gas and solid fuel processing products, production of energy-saturated materials, production of chemical current sources, production of protective and decorative coatings, production of electronic equipment elements and single crystals, production of composite materials and nanocomposites, nanofibrous, nanostructured and nanomaterials of various chemical nature, production of rare and rare earth elements). | 732 hours. / Practical training: practical exercises, laboratory work, course projects, graduate qualification work, practical training during the practice-Federal State Unitary Enterprise “RFNC-VNIIEF” |
Master’s degree program | Training program 18.04.01 Management of the development and optimization of the technological process, processing and analysis of scientific and technical information and research results. Areas of professional activity: chemical, chemical-technological production (in the following areas: production of inorganic substances, production of products of basic and fine organic synthesis, production of oil, gas and solid fuel processing products, production of energy-saturated materials, production of chemical current sources, production of protective and decorative coatings, production of elements of electronic equipment and single crystals, production of composite materials and nanocomposites, nanofibrous, nanostructured and nanomaterials of various chemical nature, production of rare and rare earth elements), in the field of organizing and conducting research and development work in the field of chemical and chemical-technological production. | 2579 h./ Practical training: practical exercises, laboratory work, course projects, graduate qualification work, practical training during the practice-Federal State Unitary Enterprise “RFNC-VNIIEF”. |
Programs in Material Technology | ||
Bachelor’s degree program | Training programs 22.03.01, 22.03.02 Analysis and control of the process of technological preparation of production. Development and implementation of measures to improve the technological preparation of production, measures to improve the process of technological preparation of production. Design and development of products in terms of the development of bulk nanometals, alloys and composites based on them, as well as the choice of consumables and auxiliary materials. Development, maintenance and integration of standard technological processes in the field of materials science and materials technology. A graduate who has mastered the program can carry out professional activities: automotive industry (in the field of foundry and press production of products for the automotive industry, their heat treatment). | 1390 h. / Practical training: practical exercises, laboratory work, course projects, graduate qualification work, practical training during the practice-Federal State Unitary Enterprise “RFNC-VNIIEF”. |
Master’s degree program | Training programs 22.04.01, 22.04.02 Development of testing and research methods for products manufactured in complex Heat production processes, processing and analysis of scientific and technical information and research results. Development, support and integration of innovative technological processes in the field of materials science and technology. Areas of professional activity: materials science support of the technological cycle for the production of bulk nanometals and nanoceramics, alloys and compounds, composites based on them and products from them, technological support for the full cycle of their production and products from them, measurement of parameters and modification of the properties of nanomaterials and nanostructures, Heat production, research and development activities, development, maintenance and integration of technological processes and industries in the field of materials science and materials technology. | 1556 h. / Practical training: practical exercises, laboratory work, course projects, graduate qualification work, practical training during the practice-Federal State Unitary Enterprise "RFNC-VNIIEF", Branch of RFNC-VNIIEF - "NIIIS n.a. Yu.E. Sedakov”. |
Degree | Code and direction of training / specialty | Name of the educational program | Competences / In which areas of nuclear technology graduates can work | Scope of practical training / How is the practical training of specialists under these programs organized, at what facilities of the nuclear industry do students have practical training |
---|---|---|---|---|
Bachelor | 03.03.02 Physics | Physics | Graduates have a deep knowledge of all major physical and mathematical disciplines, as well as specialized disciplines in nuclear physics when choosing the blocks "Neutron and Synchrotron Physics" or "Nuclear Physics". They can work in the field of scientific research on nuclear physics topics. | The volume of practical training is 16 credit units (576 hours).Practical training of those students who have chosen the block "Neutron and Synchrotron Physics" or "Nuclea r Physics" is carried out, in particular, at the Petersburg Nuclear Physics Institute named by B.P.Konstantinov of National Research Centre "Kurchatov Institute". |
Master | 03.04.01 Applied Mathematics and Physics | Mathematical and Information Technologies | Graduates are able to develop mathematical models for modern equipment, participate in major international projects in the field of nuclear physics, including the project to create the NICA collider. They can work in the following areas: nuclear physics, elementary particle physics, physics of accelerators. | The volume of practical training is 60 credit units (2160 hours).Practical training is carried out at the enterprise: Joint Institute for Nuclear Research. |
Master | 03.04.02 Physics | Physics | Graduates have a fundamental physical education and advanced research skills and are ready for research activities on the following topics: atomic nuclei and elementary particles, sources of ionizing radiation, radiation detectors, nuclear electronics, nuclear power plants. | Practical training of those students who have chosen the block "Neutron and Synchrotron Physics" or "Nuclear Physics" is carried out at the following enterprises: National Research Center "Kurchatov Institute", Petersburg Nuclear Physics Institute named by B.P.Konstantinov of National Research Centre "Kurchatov Institute", Joint Institute for Nuclear Research. |
Master | 03.04.02 Physics | Condensed Matter Physics at MEGA-Science Facilities | Graduates of the program master the fundamentals of the physics of the interaction of neutron and synchrotron radiation with matter (solid bodies, polymers, wildlife, nano-and heterostructures), as well as the physical and mathematical apparatus that describes the processes of generation, propagation and scattering of coherent radiation, control of the parameters of neutron and synchrotron beams. Graduates of the program can successfully work as research physicists, physicists-engineers and are in demand in such areas of science and technology as the complex of MEGA-class scientific facilities - neutron and synchrotron research centers in Russia and around the world. | The volume of practical training is 63 credit units (2268 hours). Practical training is carried out at the following enterprises: National Research Center "Kurchatov Institute", Petersburg Nuclear Physics Institute named by B.P.Konstantinov of National Research Centre "Kurchatov Institute", Joint Institute for Nuclear Research. |
Master | 04.04.01 Chemistry | Chemistry | Graduates are able to participate in radiochemical research, for example, in the separation of radionuclides from irradiated raw materials, disposal of radioactive waste, preparation of radiopharmaceuticals for radionuclide diagnostics and radiotherapy. | Undergraduates receive practical training in the process of studying the disciplines "Applied Radiochemistry", "Physical foundations of radiochemistry", "Nuclear industry: basic concepts and technologies", "Radiopharmaceuticals for Nuclear Medicine", as well as when working with radionuclides in preparation for the defense of a master's thesis, as well as in the process of implementing joint research projects with the Radium Institute. |
Level of training | Name of additional educational program | Competences / In which areas of nuclear technology graduates can work | Scope of practical training / How is the practical training of specialists under these programs organized, at what facilities of the nuclear industry do students have practical training |
---|---|---|---|
Additional Educational Programs for Advanced Training | Physical foundations of quantum computing | Capable to analyze quantum optic phenomena / Capable to apply the apparatus of quantum optics in practice / Capable to understand the fundamental principles of quantum computing / Capable of analyzing quantum computing circuits. | There is no practical training. The program was created within the framework of the work of the Consortium of the Competence Center of the National Technology Initiative (NTI) in the direction of "Quantum technologies" |
The use of two-beam stations"focused ion beam - scanning electron microscope" for research in the field of nanotechnology and materials science | Capable to explain basic principles of construction and operation of FIB-SEM stations, basics of solid state physics, charged particles physics and crystallography. Capable to explain areas of application of FIB-SEM stations, basics and advanced investigation methods: topographical and phase contrast imaging, elemental analysis, determination of crystallographic orientation of the surface of the sample, investigation of recombination and luminescent activity of electron-hole pairs in semiconductors. Capable to prepare the samples: cleaning of the sample surface, cutting, grinding and polishing, evaporation of conductive coatings by ion beam deposition (IBD)..Capable to basic alignment and focusing of electron and ion columns of FIB-SEM stations. Capable to use FIB-SEM for imaging micro- and nano-objects, for qualitative energy-dispersive X-Ray microanalysis (EDX) for cathodoluminescence spectra acquiring and for ion beam assisted sample preparation with FIB-SEM station | 41 hours of practical training out of a total of 144. Training is conducted on the basis of the Science Park of St. Petersburg State University, MRC "Nanotechnologies" and RC "Nanophotonics". Equipping resource centers at the level of the world's leading centers of microscopy, allowing you to gain experience working on high-end equipment. A large collection of samples from various fields of earth sciences, materials science and solid state physics, allowing you to gain experience with various classes of objects, depending on the wishes of students | |
Methods and technologies for preparing undergraduate students for further education in the master's program in nuclear physics | Capable of developing new types of educational tasks, forms and methods of teaching, didactic and test materials and other projects aimed at finding ways and means of developing and improving the quality of education. Capable of having a fairly broad outlook in the field of nuclear physics research methods and is able, within the framework of his professional activities, to purposefully prepare students for further education in the master's program in the relevant areas. | There is no practical training. This additional educational program is intended for lecturers of major disciplines in physics and mathematical areas of the bachelor's degree, planning to purposefully teach and prepare students for further education in the master's program in nuclear physics directions. | |
Preparation for admission to the master's programs of St. Petersburg State University in nuclear physics | Capable of learning new types of educational tasks, forms and methods of teaching, owns modern physical and mathematical methods of research. Capable of having a fairly broad outlook in the field of nuclear physics research methods and is prepared for further education in the master's program in relevant areas. | There is no practical training. Improving the level of training of foreign students in natural science areas of higher educational institutions (universities) for further education for master's programs. | |
Numerical modeling of neutron experimental facilities | Capable of applying in practice the knowledge of physical phenomena underlying the methods of diffraction, small-angle scattering and neutron reflectometry used to study the condensed state of matter. Capable of using knowledge about the design and principles of operation of modern neutron reactors. Capable of using modern methods for analyzing the structure and properties of materials using neutrons. Capable of applying modern digital technologies and methods of analysis, presentation and transmission of information, develop and use application software packages in his professional activities. | 28 hours of practical training out of a total of 148. Formation of basic knowledge in the field of Monte Carlo simulation using McStas, VitESS and OpenMC software packages. Training in modeling of neutron installations, neutron transport systems and elements of protection against ionizing radiation. Obtaining additional knowledge in the field of interaction of ionizing radiation with matter. The program allows you to master the basics of the physics of the interaction of neutrons with matter (solid bodies, polymers, wildlife, nano- and heterostructures), and also a physical and mathematical apparatus describing the processes of generation, propagation and scattering of coherent radiation, control of neutron beam parameters. The main part of the lectures and practical classes is devoted to computer modeling using the software packages McStas, VitESS and OpenMC. Using the example of four main neutron techniques for studying a condensed state - small-angle scattering, diffraction, reflectometry and spectroscopy - the possibilities of modeling and subsequent optimization of the parameters of neutron installations, as well as modeling stochastic processes of neutron motion in a medium, will be demonstrated. The last section of the additional educational program is devoted to the modeling of nuclear-physical processes of generation, thermalization and absorption of neutrons and devices for protection against exposure ionizing radiation. |
Code and name of the direction of training / specialty | Name of the educational program | The level of education | Type of accreditation | Accrediting organization |
---|---|---|---|---|
04.04.01 Chemistry | Chemistry | Master | International Professional Accreditation | AKKORK, ECTN |
№ | Company | site | Internships | Participation in Career activities |
---|---|---|---|---|
1 | National Research Center «Kurchatov Institute» | www.nrcki.ru | + | + |
2 | The Joint Institute for Nuclear Research | www.jinr.ru | + | + |
3 | Petersburg Nuclear Physics Institute named by B.P. Konstantinov of National Research Centre «Kurchatov Institute» (NRC «Kurchatov Institute» - PNPI | www.pnpi.spb.ru | + | + |
4 | Federal State Unitary Enterprise RUSSIAN FEDERAL NUCLEAR CENTER All-Russian Research Institute of Experimental Physics FSUE RFNC - VNIIEF | http://www.vniief.ru | + | |
5 | NPO Pelengator | http://www.npk-pelengator.ru/ | + | + |
6 | St. Petersburg Department of V.A. Steklov Mathematical Institute and Euler International Mathematical Institute of the Russian Academy of Sciences. | http://www.pdmi.ras.ru/pdmi/index.php | + | + |
7 | Institute of macromolecular compounds of the Russian Academy of Sciences | macro.ru/ru | + | + |
8 | Tavrida Electric | https://www.tavrida.com/ | + | + |
Degrees | Degrees. Competencies / areas of nuclear technologies in which graduates can work | Practical training in academic hours/ / the procedure practical training is organized, nuclear industry facilities where students have practical training |
---|---|---|
Programs in Electrical and Heat Power engineering | ||
Master | Graduates of programs in this area work in design, research, production and technological organizations in the field of Heat, electric and nuclear energy. Graduates of the programs have the opportunity to find a job in the Engineering Division of Rosatom State Corporation, as well as in energy industry enterprises that manufacture products (for example, turbines, pumps, electrical equipment, etc.) for nuclear power plants in Russia and abroad. Targeted training of students for the Akkuyu NPP (Turkey) is underway at the request of the State Corporation Rosatom. | The volume of practical training of students corresponds to the Federal educational standard in this area. Practical training includes research, technological, design and undergraduate practice. Students studying under the auspices of the State Corporation "Rosatom" undergo specialized internships in modern training centers of the head university of the State Corporation "Rosatom" - MEPhI. The other students undergo internships in different erganisations working in the field of heat and power facilities. |
Professional development and upskilling program | Currently, the SPbPU Energy Institute is implementing short-term programs of further education, designed for 72 hours. | The practical component is implemented in the form of excursions to various enterprises of the energy industry. |
Programs in Nuclear power engineering and technology | ||
Bachelor | The obtained competencies of graduates meet the requirements of the following professional standards:1.Specialist in the field of Heat power engineering (reactor department), 2.Nuclear power plant heat engineer,3.Engineer-designer of the technological part of objects using atomic energy,4.Engineer-designer of nuclear and radiation safety systems for nuclear facilities. Additionally, graduates are given competencies aimed at expanding their professional sphere, which allows graduates to work in other energy sectors. Graduates predominantly work at the enterprises of the State Corporation Rosatom, mainly in the Engineering, Production and Research Divisions, whose work is aimed at designing nuclear power plants, designing and manufacturing equipment for nuclear power plants, generating electrical and Heat energy at nuclear power plants. | The volume of practical training is about 10% of the volume of the educational program. Employees of the enterprises of the State Corporation Rosatom are involved in the teaching of disciplines. Students undergo specialized internships in the subdivisions of the State Corporation Rosatom, at nuclear power plants, as well as in specialized training centers of the head university of the State Corporation Rosatom - MEPhI. |
Specialist degree | The obtained competencies of graduates meet the requirements of the following professional standards:1.Specialist in the field of Heat power engineering (reactor department), 2.Nuclear power plant heat engineer, 3.Engineer-designer of the technological part of objects using atomic energy, 4.Engineer-designer of nuclear and radiation safety systems for nuclear facilities. Additionally, graduates are given competencies aimed at expanding their professional sphere, which allows graduates to work in other energy sectors. Graduates predominantly work at the enterprises of the State Corporation Rosatom, mainly in the Engineering, Production and Research Divisions, whose work is aimed at designing nuclear power plants, designing and manufacturing equipment for nuclear power plants, generating electrical and Heat energy at nuclear power plants. | The volume of practical training is about 13% of the volume of the educational program. Employees of the enterprises of the State Corporation Rosatom are involved in the teaching of disciplines. Students undergo specialized internships in the subdivisions of the State Corporation Rosatom, at nuclear power plants, as well as in specialized training centers of the head university of the State Corporation Rosatom - MEPhI. |
Master | The obtained competencies of graduates meet the requirements of the following professional standards:1.Specialist in the field of Heat power engineering (reactor department),2.Nuclear power plant heat engineer,3.Engineer-designer of the technological part of objects using atomic energy,4.Engineer-designer of nuclear and radiation safety systems for nuclear facilities. Additionally, graduates are given competencies aimed at expanding their professional sphere, which allows graduates to work in other energy sectors. Graduates predominantly work at the enterprises of the State Corporation Rosatom, mainly in the Engineering, Production and Research Divisions, whose work is aimed at designing nuclear power plants, designing and manufacturing equipment for nuclear power plants, generating electrical and Heat energy at nuclear power plants. | The volume of practical training is about 40% of the volume of the educational program. Employees of the enterprises of the State Corporation Rosatom are involved in the teaching of disciplines. Students undergo specialized internships in the subdivisions of the State Corporation Rosatom, at nuclear power plants, as well as in specialized training centers of the head university of the State Corporation Rosatom - MEPhI. |
Professional development and upskilling program | According the request of State Corporation Rosatom, a retraining program for the operation of a NPP turbine island was developed and implemented for foreign students in 2021. | The practical component is implemented in the form of excursions to various enterprises of the energy industry, as well as a series of lectures on the operation of a nuclear power plant (using the Leningrad NPP as an example) from the plant personnel directly. |
Programs in Technosphere Safety | ||
Master Emergency preparedness and response | The program was developed to train managers and specialists of structural units of nuclear power plants who plan, ensure preparedness and implement measures to protect personnel and the public in an emergency at a nuclear objects. | The volume of practical training is about 30% of the volume of the educational program. Experts of Technical Academy of Rosatom are involved in the teaching of disciplines. Students undergo specialized internships in the subdivisions of Emergency Center of Rosatom. Practical classes in Research Institute of Industrial and Marine Medicine of the Federal Medical and Biological Agency are provided. |
Full time | Part-time | Total | ||
---|---|---|---|---|
Total academic and research staff, of them | 826 | 228 | 1054 | |
With Candidate or Doctor of Science Degree | 557 | 163 | 720 | |
Active members of the Russian Academy of Sciences | 4 | 1 | 5 | |
Intrenational academic staff | 7 | 2 | 9 |
Degrees | Degrees. Competencies / areas of nuclear technologies in which graduates can work | Practical training in academic hours/ / the procedure practical training is organized, nuclear industry facilities where students have practical training |
---|---|---|
Programs in Civil Engineering and Construction | ||
BSs in Engineering, Management and Construction of Energy Facilities | Students have an opportunity to gain expertise in / developing the main sections of the thermal and nuclear power facilities project (Project-oriented professional competence 1) / developing space-planning, layout, structural project sections of thermal and nuclear power buildings and structures (Project-oriented professional competence 3) / implementing and overseeing execution of design justifications and solutions of thermal and nuclear power facilities (Project-oriented professional competence 4) / conducting technical expertise of thermal and nuclear power facilities (Expert-analytical professional competence 7) / managing life cycle support of thermal and nuclear power facilities (Service and operation professional competence 9). | Students undergo practical training at: 7. Kursk NPP-2 construction site (Russia). 8. MBIR research reactor construction site (Russia). 9. The Mayak Chemical Combine territory (Russia). 10. Akkuyu NPP construction site (Turkey). 11. Paks NPP construction site (Hungary). 12. El-Dabaa NPP construction site (Egypt). 13. Rooppur NPP construction site (Bangladesh) |
BSs in Hydrotechnical, Geotechnical and Energy Construction | Students have an opportunity to gain expertise in / developing the main sections of the thermal and nuclear power facilities project (Project-oriented professional competence 1) / developing space-planning, layout, structural project sections of thermal and nuclear power buildings and structures (Project-oriented professional competence 3) / implementing and overseeing execution of design justifications and solutions of thermal and nuclear power facilities (Project-oriented professional competence 4) / conducting technical expertise of thermal and nuclear power facilities (Expert-analytical professional competence 7) / managing life cycle support of thermal and nuclear power facilities (Service and operation professional competence 9). | Students undergo practical training at: 1. Kursk NPP-2 construction site (Russia). 2. MBIR research reactor construction site (Russia). 3. The Mayak Chemical Combine territory (Russia) |
Specialist degree in Construction of Thermal and Nuclear Power Facilities | Students have an opportunity to gain expertise in conducting technical expertise of thermal and nuclear power facilities (Expert-analytical professional competence 7) / implementing and managing radiation-ecological surveying of thermal and nuclear power construction object site (Exploratory professional competence 2) / developing the main sections of the thermal and nuclear power facilities project (Project-oriented professional competence 1) / developing space-planning, layout, structural project sections of thermal and nuclear power buildings and structures (Project-oriented professional competence 3) / implementing and overseeing execution of design justifications and solutions of thermal and nuclear power facilities (Project-oriented professional competence 4) / managing construction operations at thermal and nuclear power facilities (Technological professional competence 5) / managing a construction project of the thermal and nuclear power facility (Administration and management professional competence 6) / managing works to ensure safety during operations at and decommissioning of thermal and nuclear power buildings and structures (Control and supervision professional competence 10) / managing life cycle support of thermal and nuclear power facilities (Service and operation professional competence 9) / performing scientific and technical support of construction activities and decommissioning of thermal and nuclear power buildings and structures (Scientific research professional competence 8). | Students undergo practical training at: Kursk NPP-2 construction site (Russia), Multifunctional fast research reactor (MBIR) construction site (Russia), The Mayak Chemical Combine territory (Russia), Atomstroyexport (Russia), State Specialized Design Institute GSPI, JSC (Russia), Atomenergoproject ASE (Russia) ,Orgenergostroy (Russia) |
MSs in Construction of Thermal and Nuclear Power Facilities | Students have an opportunity to gain expertise in: developing the main sections of the thermal and nuclear power facilities project (Project-oriented professional competence 1) / developing space-planning, layout, structural project sections of thermal and nuclear power buildings and structures (Project oriented professional competence 3) / implementing and overseeing execution of design justifications and solutions of thermal and nuclear power facilities (Project-oriented professional competence 4) / managing construction operations at thermal and nuclear power facilities (Technological professional competence 5) / managing a construction project of the thermal and nuclear power facility (Administration and management professional competence 6) / managing works to ensure safety during operations at and decommissioning of thermal and nuclear power buildings and structures (Control and supervision professional competence 10) / managing life cycle support of thermal and nuclear power facilities (Service and operation professional competence 9) / performing scientific and technical support of construction activities and decommissioning of thermal and nuclear power buildings and structures (Scientific research professional competence 8). | Students undergo practical training at: Atomstroyexport (Russia), State Specialized Design Institute GSPI, JSC (Russia), Atomenergoproject (Russia), Orgenergostroy (Russia) |
Professional retraining program in Construction of especially dangerous, technically complex and unique nuclear inductry facilities (612 academic hours) | Students have an opportunity to gain expertise in:developing methods and software tools for calculating design projects / designing and economically justifying unique buildings, structures, engineering systems and equipment / managing capital construction projects / monitoring of buildings and structures of the nuclear industry / ensuring environmental safety of nuclear industry facilities. | |
Advanced training program in Capital construction, reconstruction, modernization of nuclear power facilities (72 academic hours) | Students have an opportunity to gain expertise in: legislative and technical regulating of the construction of nuclear facilities / implementing modern design and construction technologies of nuclear power facilities / maintaining safety at nuclear power facilities. | |
Advanced training program in project documentation examination. Procedure for obtaining permits for construction and reconstruction of nuclear power facilities. State expertise. (72 academic hours) | Students have an opportunity to gain expertise in:developing of monitoring systems in the design of buildings and structures / conducting the asssessment of compliance with the design documentation of capital construction facilities of enterprises and organizations of the Rosatom State Corporation. | |
Advanced training program in enhancing management of preparing and releasing of design documentation for nuclear power facilities (72 academic hours) | Students have an opportunity to gain expertise in: analysing changes in the legislative and regulatory support for the activities of the project organization / conducting an assessment of compliance with the design documentation of capital construction facilities of the nuclear industry. | |
Advanced training program in Construction control during the construction of nuclear power facilities (72 academic hours) | Students have an opportunity to gain expertise in: analysing of current legislative and regulatory acts and documents / ensuring compliance with the basic principles of assessing the actual technical condition of buildings and level of stress and strain state of their elements. | |
Advanced training program in Digital project management for the nuclear power facilities constructinon (72 academic hours) | Students have an opportunity to gain expertise in: managing organizations, departments and teams of employees in a project-oriented environment / applying quantitative and qualitative methods of digital data analysis, generalizng and critically evaluating the information obtained when developing management decisions on a construction project / monitoring the implementation of the project at the level of key project events / ensuring the integration of all activities of the project / applying methods and digital tools of calendar and network planning in the development of project schedules / providing system and operational data updating in project management information systems / implementing digital transformation of project management in large and medium-sized companies implementing projects for the construction of nuclear facilities / monitoring the development of Russian and global trends in the field of digitalization of project management and applying the information obtained to improve the management processes of the construction of nuclear facilities. | |
Advanced training program in Practice of digital project management for the construction of nuclear power stations (72 academic hours) | Students have an opportunity to gain expertise in: managing organizations, departments and teams of employees in a project-oriented environment / applying quantitative and qualitative methods of digital data analysis, generalizng and critically evaluating the information obtained when developing management decisions on a construction project / monitoring the implementation of the project at the level of key project events / ensuring the integration of all activities of the project / applying methods and digital tools of calendar and network planning in the development of project schedules / providing system and operational data updating in project management information systems / implementing digital transformation of project management in large and medium-sized companies implementing projects for the construction of nuclear facilities / monitoring the development of Russian and global trends in the field of digitalization of project management and applying the information obtained to improve the management processes of the construction of nuclear facilities. | |
Advanced training program in Organizing construction operations (72 academic hours) | Students have an opportunity to gain expertise in: carrying out the preparation of construction operations at the construction site / organizing pre-installation inspection of project documentation of perminent construction projects / managing material and technical support of construction operations at the construction site / carrying out operational management of construction operations at the construction site / accepting and monitoring the results of types and stages of construction work performed at the construction site / delivering the results of construction work to the customer / implementing the quality management system at the construction site / interacting between construction participants and supervisory authorities during the inspection procedure. |
Degrees | Degrees. Competencies / areas of nuclear technologies in which graduates can work | Practical training in academic hours/ / the procedure practical training is organized, nuclear industry facilities where students have practical training |
---|---|---|
Programs in Physics | ||
Bachelor's degree 03.03.02 PHYSICS | basic research in the field of FCS / operation of research equipment, including equipment for certifying the chemical composition, structure and functional properties of substances and materials of various nature / Development of equipment and methods for conducting research based on physical methods / Support of technological processes for the production of materials / Analysis and prediction of properties of various systems, including based on physical laws and statistical methods / Scientific research and development in the field of natural and technical sciences / Research organizations of the Russian Academy of Sciences and research and production | 22 credits / ROSATOM |
Master's degree 03.04.02 PHYSICS | basic research in the field of FCS / operation of research equipment, including equipment for certification of chemical composition, structure and functional properties of substances and materials of various nature / Development of equipment and methods for conducting research based on physical methods / Support of technological processes of materials production / Analysis and forecasting of properties of various systems, including based on physical laws and statistical methods / Scientific research and development in the field of natural and technical sciences / Research organizations of the Russian Academy of Sciences and research and production | 51 CREDITS / ROSATOM |
Programs in Material Science | ||
Bachelor's Degree 22.03.01 MATERIALS SCIENCE AND TECHNOLOGY | Development of materials and technologies for their processing for large transport systems / Research of mechanisms and structural factors of destruction during degradation of mechanical properties of materials of nuclear reactor housings and cores, research and development of functional materials / development and maintenance of technological processes for the production of functional materials, Obtaining and research of new promising materials with various functional properties, development of new materials and technologies development and maintenance of production of solid-state electronics products and related materials / research of properties, structure and composition of functional electronics materials / control of parameters of materials and electronics products / Scientific research and development in the field of natural and technical sciences / Research organizations of the Russian Academy of Sciences and research and production | 22 CREDITS / ROSATOM |
Bachelor's degree 22.03.02 METALLURGY | Able to choose research methods, plan and conduct necessary experiments, interpret the results and draw conclusions / to analyze and synthesize materials in technology / to develop proposals for the introduction of new equipment and technologies into production / to implement and correct technological processes in metallurgy and material processing to make sound technical decisions in professional activities, to choose effective and safe technical means and technologies / to solve research tasks in the implementation of professional activities using modern information technologies and applied hardware and software tools, to carry out modeling, analysis and experiments in order to conduct detailed research to solve problems in the professional field / Sphere of science, techniques and technologies covering a set of tasks in Metallurgy | 15 CREDITS / ROSATOM |
Master's degree 22.04.01 MATERIALS SCIENCE AND TECHNOLOGY | Development of materials and technologies for their processing for large transport systems / Research of mechanisms and structural factors of destruction during degradation of mechanical properties of materials of nuclear reactor housings and cores, research and development of functional materials / development and maintenance of technological processes for the production of functional materials / Obtaining and research of new promising materials with various functional properties, development of new materials and technologies development and maintenance of production of solid-state electronics products and related materials / research of properties, structure and composition of functional electronics materials / control of parameters of materials and electronics products. / Scientific research and development in the field of natural and technical sciences / Research organizations of the Russian Academy of Sciences and research and production | 46 CREDITS / ROSATOM |
Master's degree 22.04.02 Deformation processing of metals and alloys | Able to analyze, develop, improve technologies and equipment for deformation and heat treatment of metals and alloys, the composition, structure and properties of the resulting metal products / to organize the coordinated work of production units for the production of rolled non-ferrous metals and alloys / to conduct comprehensive research on the processes of deformation and heat treatment of metals and alloys, the structure and properties of the resulting metal products / research and development in the study of independent topics / solve production and (or) research tasks based on fundamental knowledge, knowledge in interdisciplinary areas in the field of metallurgy / evaluate the results of scientific and technical developments, scientific research and justify your own choice, systematizing and summarizing achievements in the metallurgy industry and related fields / Fields of science, engineering and technologies covering a set of tasks in the Metallurgy | 30 CREDITS / ROSATOM |
Master's degree program 22.04.02 Logistics and eco-design industrial technologies | Able to develop, support and integrate innovative technological processes into existing schemes, taking into account the logistics of the enterprise in the field of materials technology / develop an infrastructure for environmentally safe neutralization and processing of production and consumption waste / conduct research and development work in the study of independent topics / solve production and (or) research tasks based on fundamental knowledge knowledge in interdisciplinary areas in the field of metallurgy / evaluate the results of scientific and technical developments, scientific research and justify your own choice, systematizing and summarizing achievements in the metallurgy industry and related fields / Fields of science, technology and technology, covering a set of tasks in the Metallurgy direction | 27 CREDITS / ROSATOM |
Master's degree 22.04.02 New materials and digital technologies for metal casting | It is able to develop new technologies for processing metal and non-metallic materials, identify, evaluate and manufacture products made from them / analyze new technological processes in the production of products made of metal and non-metal materials / conduct work on processing and analyzing scientific and technical information and research results / conduct patent research and determine product characteristics / evaluate the results of scientific and technical research / research and justify their own choice, systematizing and summarizing achievements in the field of metallurgy and related fields / solve production and (or) research tasks based on fundamental knowledge, knowledge in interdisciplinary areas in the field of metallurgy / Fields of science, technology and technology, covering a set of tasks in the direction of Metallurgy | 30 CREDITS / ROSATOM |
Master's degree 22.04.02 Powder and additive technologies for the synthesis of functional materials and coatings | It is able to develop and manage technological processes for the production of powders, powders, composite materials, coatings, analyze them to select measures and tools for product quality management / analyze and theoretically summarize scientific data in accordance with research objectives, study scientific and technical information, form research programs / analyze experimental results, choose research methods, form new research directions, determine the scope of application of research results / conduct research and development work on the organization's topics / implement and justify the rational choice of materials and technological processes for creating new alloys, ceramic or composite materials / formulate recommendations for improving the quality of manufactured products made of metals and alloys / solve production and / or production problems. / research tasks, based on fundamental knowledge, knowledge in interdisciplinary areas in the field of metallurgy / evaluate the results of scientific and technical developments, scientific research and justify your own choice, systematizing and summarizing achievements in the metallurgy industry and related fields / Spheres sciences, techniques and technologies covering a set of tasks in Metallurgy | 27 CREDITS / ROSATOM |
Master's degree 22.04.02 Modern technologies for obtaining and protecting metal materials | Able to conduct research and development work on the subject of scientific research / conduct materials science research in the development of new metal and composite materials of the "metal-coating" system / develop innovative technological processes in the field of materials science and materials technology / apply professional knowledge for the materials science support of the technological cycle of production of bulk nanomaterials, alloys, composites based on their components. and products made from them / evaluate the results of scientific and technical developments, scientific research and justify their own choice, systematizing and summarizing achievements in the metallurgy industry and related fields / solve production and (or) research tasks based on fundamental knowledge, knowledge in interdisciplinary areas in the field of metallurgy / Science, technology and technology, covering a set of tasks in Metallurgy | 28 CREDITS / ROSATOM |
Master's degree 22.04.02 Technological support for innovation | The ability to conduct research and development activities in the study of independent topics / to analyze and theoretically summarize scientific data in accordance with the research objectives, to study scientific and technical information, to form research programs / to conduct research and development work on the organization's topics / to analyze, develop, improve technologies and equipment of the metallurgical plant. to evaluate the results of scientific and technical developments, scientific research and justify their own choice, systematizing and summarizing achievements in the field of metallurgy and related fields / to solve production and (or) research tasks, based on fundamental knowledge, knowledge in interdisciplinary areas in the field of metallurgy / Cферы Science, technology and technology, covering a set of tasks of the direction Metallurgy | 27 CREDITS / ROSATOM |
Master's degree 22.04.02 Physical Metal Science (iPhD) | Able to carry out and justify the rational choice of materials and technological processes for creating new alloys, ceramic or composite materials / reasonably use knowledge to analyze typical technological processes of metals and alloys, participate in the development of technological processes for the production and processing of metal products in the field of metal science and materials technology / formulate recommendations for improving the quality of products made from metals and alloys evaluate the results of scientific and technical developments, scientific research and justify their own choice, systematizing and summarizing achievements in the metallurgy industry and related fields / solve production and (or) research tasks based on fundamental knowledge, knowledge in interdisciplinary areas in the field of metallurgy / Fields of science, technology and technology, covering a set of tasks in the field of Metallurgy | 21 CREDITS / ROSATOM |
Master's degree 22.04.02 Advanced Metallic Materials and Engineering / Modern Metal Materials and Engineering | Able to reasonably use knowledge to analyze typical technological processes of metals and alloys, participate in the development of technological processes for the production and processing of metal products in the field of metal science and materials technology / implement and justify the rational choice of materials and technological processes for creating new alloys, ceramic or composite materials / formulate recommendations for improving the quality of metal and alloy products / evaluate the results of scientific and technical developments, scientific research and justify your own choice, systematizing and summarizing achievements in the metallurgy industry and related fields / Areas of science, technology and technology, covering a set of tasks in the Metallurgy | 21 CREDITS / ROSATOM |
Master's degree 22.04.02 Technological management in the production of non-ferrous metals and gold | Able to carry out resource management / develop proposals for improving the efficiency of using raw materials and energy resources in the production of non-ferrous, rare and precious metals / apply professional knowledge to create flexible, multi-purpose and/or energy-saving progressive metallurgical processes and technologies for processing primary and/or secondary raw materials of non-ferrous, rare and precious metals / conduct research and experimental research on the development of-design work on the subject of the organization / evaluate the results of scientific and technical developments, scientific research and justify your own choice, systematizing and summarizing achievements in the metallurgy industry and related fields / solve production and (or) research tasks based on fundamental knowledge, knowledge in interdisciplinary areas in the field of metallurgy / evaluate the results of scientific and technical developments research and justify your own choice by systematizing and summarizing achievements in the metallurgy industry and related fields / Areas of science, technology and technology that cover the totality of tasks in the Metallurgy | 42 CREDITS / ROSATOM direction |
NAME | Status/achievement | Focus |
---|---|---|
Mahmut Akbiev Akbievich | Doctor of Technical Sciences, Honored Inventor of the Kazakh SSR (1977), winner of the State Prize of the USSR. | Metallurgy |
Valery Georgievich Andreev | Soviet and Russian physicist and chemist. Honorary citizen of Kuznetsk. Laureate of the State Prize of the Russian Federation. | Semiconductor materials |
Astakhov Mikhail Vasilievich | Soviet and Russian chemist, doctor of chemical sciences, professor at the department of physical chemistry at the National Research Technical University "Moscow Institute of Steel and Alloys" | Physical Chemistry / Nanomaterials |
Badalov Karen Karlsovich | Russian actor of theater and cinema. Honored Artist of the Russian Federation, serves in the Moscow P. Fomenko's Workshop Theater. Fomenko's Workshop" in Moscow. | Physics of metals |
Ruslan Sulimovich Baisarov | Owner and Chairman of the Board of Directors of Tuva Energy Industrial Corporation JSC (TEPK), major shareholder of Bamtonnelstroy-Most Group (SC SC MOST until October 2021), Chairman of the Board of Directors of BTS-MOST JSC (USK Most JSC until October 2021) since 2016. | Geology of Mineral Resources Development (postgraduate) |
Vladimir Dmitrievich Belov | D. in Technical Sciences, Professor of the department of foundry technology and artistic processing of materials at the National Research Technical University "MISIS". Honored Worker of Higher Education of the Russian Federation (2018). Honorary Worker of Higher Professional Education of the Russian Federation (2009). | Metallurgy |
Nikolai Alexandrovich Belov | Soviet and Russian scientist-metallurgist, teacher of higher education, inventor. Doctor of Technical Sciences, Professor of the Department of Metal Forming at the National Research Technical University "MISIS". Awarded the honorary title "Honorary Inventor of Moscow" (2014). | Metallurgy |
Blanter Yaroslav Mikhailovich | Russian physicist, specialist in the field of metallurgy and condensed state physics, as of 2013 - professor at the Kavli Institute of Nanoscience at Delft Technical University (Netherlands). He was actively involved in the Russian section of Wikipedia, during which time he made edits to about 10,000 Articles (mostly unrelated to his professional activities), was an administrator and arbitrator. He imposed more than a thousand blockings on participants and deleted several thousand pages. | Materials Science |
Lyudmila Borisovna Boynovich | Russian physicist, chemist, doctor of physical and mathematical sciences, Acting member of the Russian Academy of Sciences 2016 (corresponding member since 2006). | Physical chemistry |
Boris Samuilovich Bokshtein | Soviet and Russian scientist-metallurgist, specialist in the field of diffusion in metals and alloys. Doctor of Physics and Mathematics, Professor of the Department of Physical Chemistry at MISIS. Honored Worker of Science of the Russian Federation, Honored Worker of Higher School of the Russian Federation. | Physical Chemistry |
Olga Igorevna Vinogradova | Russian theoretical and mechanical physicist, doctor of physical and mathematical sciences, member of Academia Europaea, head of the laboratory of physicochemistry of modified surfaces at the Frumkin Institute of Physical Chemistry of the Russian Academy of Sciences. D. in physics and mathematics, member of Academia Europaea. | Physical chemistry |
Grigorieva Irina Vladimirovna | Professor of Physics at the University of Manchester and Director of the Research Council for Engineering and Physics of the Center for Doctoral Training in Graphene Science and Applications. | Material Science |
Guliaev Gennady Ivanovich | Metallurgist: Doctor of Technical Sciences, Professor, holder of the USSR State Prize and Prize of the USSR Council of Ministers, holder of the Orders of the Red Banner of Labor and the Badge of Honor | Metallurgy |
Dosmagambetov Yerlan Sultanovich | Kazakhstan statesman, engineer, lawyer, PhD in economics. Akim of Temirtau from June to September 1997. | Material Science |
Lyudmila Kaputkina | Physicist, doctor of physics and mathematics, professor, honored scientist of the Russian Federation, winner of P.P. Anosov prize. | Metallurgy |
Valery Ivanovich Kravtsov | Latvian politician and public figure. In 2009-2010. Deputy of the Liepaja City Council. In October 2010 was elected deputy of the 10th Saeima of Latvia from the party "Concord Centre". | Metallurgy |
Evsei Borisovich Krakovsky | Soviet and Russian metallurgist foundry worker and production organizer. Former chief engineer of KAMAZ, director of VNIILITMASH. Winner of the USSR Council of Ministers Prize, he was awarded orders and medals. | Metallurgy |
Livanov Dmitry Viktorovich | Russian statesman, theoretical physicist. Special representative of the President of the Russian Federation for trade and economic relations with Ukraine (from August 19, 2016 to October 5, 2018). Minister of Education and Science of the Russian Federation (from May 21, 2012 to August 19, 2016). Doctor of Physical and Mathematical Sciences, Professor. Laureate of the Russian Federation Government Prize in Education (2011). | Physical chemistry |
Vladimir Grigorievich Loginov | Russian statesman, Deputy Minister of Natural Resources and Environment of the Russian Federation (2019). | Automation |
Boris Lomberg | Scientist in the field of materials science, author of several dozens of new alloys, one of the deputy heads of the All-Russian Research Institute of Aviation Materials. | Material Science |
Valentin Pavlovich Luzgin | Soviet and Russian scientist-metallurgist, specialist in steelmaking processes. Doctor of Technical Sciences, Professor of the Department of Metallurgy of Steel, New Production Technologies and Metal Protection of the National Research University "MISIS". Laureate of the USSR Council of Ministers Award, Honored Worker of Science of the Russian Federation. | Metallurgy |
Grigory Emmanuilovich Luchansky | Major International Entrepreneur. Founder of Nordex Austrian Group, Senior Vice President of the International Congress of Industrialists and Entrepreneurs, President of the Russian Center for Investment Projects and Programs, Member of the Presidium Bureau of the Russian Jewish Congress. | Metallurgy |
Ma Foucan | Chinese scientist, professor, foreign member of the Russian Academy of Sciences, Russian Academy of Engineering, | Metallurgy |
Mazin Igor Ilyich | Russian and American physicist, author of articles with high citation index, Hirsch index - 62. | Physical chemistry |
Maslenkov Stanislav Borisovich | Soviet and Russian scientist-metallurgist, specialist in the field of heat-resistant alloys. Doctor of technical sciences, professor. Laureate of the State Prize of the USSR. | Metallurgy |
Boris Stepanovich Mastryukov | Soviet and Russian scientist and metallurgist, specialist in life safety in the technosphere. Doctor of Technical Sciences, Professor of the Technosphere Safety Department at the National Research University "MISIS". Laureate of the Russian Federation President Award in Education (1998), Honored Scientist of the Russian Federation (2001). | Metallurgy |
Vladimir Vladimirovich Miklushevsky | Russian statesman and politician. Rector of Moscow Polytechnic University since December 28, 2017. Member of the United Russia party. Doctor of Technical Sciences, the author of more than 60 scientific works. | Metallurgy |
Yury A. Minaev | Soviet, Kazakhstani and Russian scientist-metallurgist, specialist in pyrometallurgical processes. Doctor of technical sciences, professor of the department of physical chemistry at the National research university "MISIS". Rector of the Karaganda Metallurgical Institute (1988-92). | Metallurgy |
Nikolay Ivanovich Mirsky | Russian metallurgist, executive director of Taganrog Metallurgical Works (2002-2003), general director of ORMETO-YUMZ (2005-2007). | Metallurgy |
Boris Molotilov | Soviet and Russian metallurgical scientist, specialist in the field of precision alloys of different groups and purposes. Doctor of Technical Sciences, Professor. General director of Central Research Institute of Ferrous Metals named after I.P. Bardin in 1987-92. Laureate of the State award of USSR, Laureate of the Award of USSR Council of Ministers. | Metallurgy |
Yuri Dmitrievich Morozov | Soviet and Russian scientist and metallurgist, specialist in creating steels for pipes and welded structures. Director of the Center of steels for pipes and welded structures at the Bardin Central Research Institute of Ferrous Metallurgy. Laureate of the Russian Federation Government Prize in Science and Technology, Honorary Metallurgist of Russia. | Automation |
Omarov Ashim Kurambaevich | Soviet and Kazakh metallurgical scientist, Rector of the Kazakh Polytechnic Institute (1968-76), Rector of the Chimkent Pedagogical Institute (1984-92). Doctor of Technical Sciences, professor at K. Satpayev Kazakh National Technical University, Acting member of the National Academy of Sciences of Kazakhstan, honored scientist of Kazakhstan, honorary engineer of Kazakhstan. | Metallurgy |
Pantsyrny Victor Ivanovich | Doctor of Technical Sciences, A.A. Bochvar Prize winner. | Materials Science |
Yuri Nikolaevich Parkhomenko | Soviet and Russian scientist in the field of physicochemistry and technology of inorganic materials, analytical methods of research of composition and properties of inorganic and organic materials, physical materials science, scientific leader of Giredmet JSC, Doctor of Physical and Mathematical Sciences, Professor of MISiS. | Material Science |
Pimenov Alexander Fedorovich | Soviet and Russian metallurgical scientist, expert in the field of rolling production, chief rolling specialist of the Ministry of Iron and Steel of the USSR. Doctor of Technical Sciences, Professor. He was twice awarded the State Prize of the USSR, Honored Scientist of the Russian Federation. | Metallurgy |
Povarova Kira Borisovna | Russian materials scientist. Doctor of Technical Sciences, Professor, Chief Scientific Associate at the A.A. Baikov Institute of Metallurgy and Material Science of the Russian Academy of Sciences. Doctor of Technical Sciences, professor, chief researcher of the A.A. Baikov Institute of Metallurgy and Material Science of the Russian Academy of Sciences. Laureate of the State Prize of the USSR and the Prize of the Government of the Russian Federation. | Metallurgy |
Mikhail Aleksandrovich Pozhyvanov | Ukrainian politician, statesman and public figure, philanthropist. People's deputy of Ukraine of four convocations, held governmental posts. Head of the Municipal Reform Foundation "Magdeburg Law" NGO. Doctor of technical sciences (1994) and professor (1996). | Metallurgy |
Vladimir Petrovich Polukhin | Soviet scientist in the field of metal forming, Doctor of Technical Sciences, professor, twice winner of the USSR State Prize. | Metallurgy |
Alexander Georgievich Ponomarenko | Soviet scientist and metallurgist, specialist in theory and technology of ferroalloy and steelmaking, made a great contribution to theory of metallurgical slags. Doctor of Technical Sciences, Professor of Electrometallurgy Department, Donetsk National Technical University. | Metallurgy |
Irina Gavrilovna Rodionova | Soviet and Russian scientist and metallurgist, specialist in the field of development of scientific foundations for production of bimetals with corrosion-resistant cladding and technology of their production. Doctor of Technical Sciences, Senior Scientific Associate, Deputy Director of the Bardin Central Research Institute for Physical Chemistry, Material Science, Bimetals and Special Types of Corrosion. Laureate of the Prize of the Government of the Russian Federation in Science and Technology (2013). | Metallurgy |
Boris A. Romantsev | Soviet and Russian metallurgical scientist, specialist in processes and equipment of metal forming. Doctor of Technical Sciences, Professor of the Department of Metal Forming at the National Research Technical University "MISIS". Laureate of the USSR Council of Ministers Prize and the Russian Federation Government Prize in Science and Technology. | Metallurgy |
Dmitry Ryzhonkov | Soviet and Russian scientist-metallurgist, specialist in the field of ultradisperse or nanocrystalline materials. Doctor of Technical Sciences, professor of the department of functional nanosystems and high-temperature materials at the Moscow Institute of Steel and Alloys. Winner of the State Prize of the Russian Federation (1996), Honored Worker of Science and Technology of the Russian Federation (1991). | Metallurgy |
Anatoly Grigorievich Svyazhin | Soviet and Russian scientist and metallurgist, specialist in the field of development of theory of interaction of gases with liquid metals and in the production of steel with low nitrogen content, as well as high-nitrogen steels. Doctor of Technical Sciences, Professor of the Department of Steel Metallurgy, New Production Technologies and Metal Protection at the National Research Technical University "MISIS". Laureate of the USSR Council of Ministers Prize (1987). | Metallurgy |
Anatoly Mikhailovich Sedykh | Entrepreneur, Chairman of the Board of Directors of the United Metallurgical Company. Candidate of Sciences (Ph.D.) in Economics. President of OMK-Participation Charitable Foundation for Family Support, Protection of Children, Motherhood and Fatherhood. | Metallurgy |
Seydaliev Fikrat Seydali oglu | Soviet scientist, Metallurgist, Doctor of Technical Sciences, Professor, Corresponding Member of Russian Academy of Natural Sciences, Expert in theory and technology of production of pipes and sections of ferrous and nonferrous metals and alloys. USSR State Prize laureate (1968). | Metallurgy |
Oleg Mikhaylovich Smirnov | Soviet and Russian metallurgical scientist, specialist in the theoretical foundations of superplastic deformation. Doctor of Technical Sciences, Professor of the Department of Metal Forming at the National Research Technical University "MISIS". Honored Scientist of the Russian Federation. | Metallurgy |
Boris Yakovlevich Spivakov | Chemist, Corresponding Member of the Russian Academy of Sciences (2003), winner of L.A. Chugaev Prize (1989) and V.G. Khlopin Prize (2004). | Materials Science |
Stepharenko Natalia Dmitrievna | Russian and Italian model, actress and TV presenter. | Metallurgy |
Stomakhin Alexander Yakovlevich | Soviet and Russian scientist and metallurgist, specialist in the area of thermodynamics of melts. Doctor of Technical Sciences, Professor of the Department of Metallurgy of Steel, New Production Technologies and Metal Protection of the National Research Technical University "MISIS. Laureate of the USSR Council of Ministers Prize (1981). | Metallurgy |
Vladimir Sergeyevich Stulov | Chairman of the Board of Directors of the open joint-stock company "Pavlov Posad Handkerchief Manufactory", Chairman of the Art Council of the same organization, President of the Union "National Arts and Crafts of the Moscow Region", laureate of the Russian Federation State Prize, laureate of the Russian Federation Government Prize, honorary member of the Russian Academy of Arts. | Metallurgy |
Robert Arnoldovich Suris | Soviet and Russian physicist, Doctor of Physical and Mathematical Sciences, member of the Russian Academy of Sciences (2006). He is the head of the laboratory of A.F. Ioffe Physics Institute of the Russian Academy of Sciences. | Physical chemistry |
Alexander Ivanovich Traino | Soviet and Russian scientist-metallurgist, specialist in the field of metal forming. Doctor of technical sciences. Laureate of the State Prize of the USSR. | Metallurgy |
Olga Anatolievna Uskova | Russian businessman, founder and president of Cognitive Technologies - Russian software and IT-solutions developer, Head of Cybernetics Engineering Department at National Research University MISIS. | Engineering cybernetics |
Oleg Khikmetovich Fatkullin | Specialist in the field of structural materials, Doctor of Technical Sciences, full member of the Engineering Academy of the Russian Federation, Academy of Technological Sciences of the Russian Federation, winner of A. A. Bochvar prize (2002). | Materials Science |
Georgy Anatolievich Filippov | Russian metallurgist, Doctor of Technical Sciences, Professor, Director of the Institute of Quality Steels within the I.P. Bardin Central Research Institute of Ferrous Metallurgy. Two times winner of the Prize of the Government of the Russian Federation. | Physical chemistry |
Mikhail Viktorovich Fistul | Soviet and Russian physicist, Candidate of Physical and Mathematical Sciences, leading researcher at the Department of Theoretical Physics at the Ruhr University (Germany). | Physical Chemistry |
Ivan Pavlovich Shabalov | Russian scientist and entrepreneur, owner of the company "Pipe Innovative Technologies". Doctor of Technical Sciences | Metallurgy |
Oleg Ivanovich Shainovich | Soviet and Russian scholar of metallurgy, economist, specialist in the design and reconstruction of metallurgical plants. D. in Economics, professor of the Department of Economics and Production Engineering at the Moscow Institute of Steel and Alloys. Honored metallurgist of Russia. | Metallurgy |
Shilshtein Sana Shaevich | Russian-Israeli scientist, Doctor of Physical and Mathematical Sciences. | Physical Chemistry |
Boris Gennadievich Kovalenkov | Member of the Board of Directors, General Director of ChTPZ (Chelyabinsk Pipe Rolling Plant) from 2017 to 2022. | Metallurgy |