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  • Specialty "Traffic control systems and navigation" (bachelor's degree). Traffic control systems and navigation - bachelor's degree (24.03.02) Traffic control systems and navigation specialty

    Speciality

    The most numerous institute at the MAI today was established in 1940. Its original name was the Faculty of Aviation Equipment and Instrumentation. In 1952, it was renamed the Faculty of Instrumentation and Automation, and in 1960 the Faculty of Aircraft Control Systems (created on the basis of the disbanded Faculty of Weapons and the Department of Aircraft Stabilization and Autopilots) joined it, which gave the name to the combined faculty. It received its modern name in 1961 and very quickly became the largest in the university. In 2017, by the decision of the Academic Council of the MAI, Faculty No. 3 was renamed Institute No. 3.

    The institute has 15 departments:








    Forms of study:

    full-time: bachelor's degree - 4 years; specialty - 5 years; 5.5 years; master's degree - 2 years.

    Part-time: bachelor's degree - 5 years.

    Correspondence: bachelor's degree - 5 years.

    The Institute trains bachelors, masters and specialists in the development and design of various types of equipment, instruments, complexes and systems for the aerospace and other industries in the following areas of training, specialties and specializations:

    BACHELOR

    Direction: 09.03.01 - "Informatics and Computer Engineering"

    Profiles:

    • Automated management of business processes and finances (department 315) (full-time curriculum) (correspondence curriculum)
    • full-time curriculum) (correspondence curriculum)
    Direction: 09.03.02 - "Information systems and technologies"
    • Information systems of aerospace complexes (department 308) ()
    • Information Systems for Testing Spacecraft (Department 312B)()
    • Design and production of information and computer technology (Department 307) ()
    Direction: 09.03.03 - "Applied Informatics"
    • Applied Informatics in Technical Systems (Department 311, full-time education) ()
    • Applied Informatics in the Information Sphere (Department 311, distance learning) ()
    Direction: 09.03.04 - "Software Engineering" Direction: 12.03.04 - "Biotechnical systems and technologies"
    • Biotechnical and medical devices and systems (310) ()

    Direction: 13.03.02 - "Electric power and electrical engineering"

    Profiles:

    • Information technologies in electric power and electromechanical systems (department 310) ()
    • Comprehensive miniaturization of devices and systems of aircraft electrical equipment (Department 306) ()
    • Aircraft Electrical Equipment (Department 306) ()

    Direction: 24.03.02 - "Traffic control systems and navigation"

    Profiles:

    • Software and hardware management systems (Department 301) ()
    • Electromagnetic compatibility and protection of airborne systems (Department 309) ()
    • Electric power complexes LA (department 310) ()

    Direction: 27.03.04 - "Management in technical systems"

    Profiles:

    • Information technologies in management (department 301) ()
    • Control and Informatics in Technical Systems (Department 301) ()

    Direction: 27.03.05 - "Innovation"

    Profiles:

    • Innovation Management (Department 317) ()
    Direction: 38.03.05 - "Business Informatics"
    • Enterprise Architecture (Department 319) ()
    • Information and analytical support of business (department 315) (full-time curriculum) (correspondence curriculum)


    SPECIALTY

    Specialty: 24.05.05 - Aircraft Integrated Systems

    Specialization:

    • Devices and measuring and computing systems of aircraft (department 305) ()

    Specialty: 24.05.06 - "Aircraft control systems"

    Specializations:

    • Aircraft motion control systems (department 301) ()
    • Aircraft power plant control systems (Department 301) ()
    • Measuring and computing complexes of control systems for aerospace aircraft (department 305) ()
    • Navigation systems and inertial sensors of aircraft control systems (Department 305) ()
    • Control flight and navigation systems of aircraft (department 305) ()

    MASTER

    Direction: 09.04.01 - "Informatics and Computer Engineering"

    Programs:

    • Automated resource management in economics (Department 315) (full-time curriculum) (correspondence curriculum)
    • Automated systems for information processing and control (department 304) ()
    • Computers, complexes, systems and networks (department 304) ()
    • Software for Computer Engineering and Automated Systems (Department 304, 318) ()
    • Computer-Aided Design Systems (Department 316) (correspondence curriculum) (full-time curriculum)
    • Designing Highly Loaded Internet Services (Department 316) (curriculum)
    • Internet of Things (Department 316) (curriculum)

    Direction: 09.04.04 - "Software Engineering"

    Program:

    • Software and Information Systems (Department 304) ()

    Direction: 11.04.03 - "Design and technology of electronic means"

    Program:

    • Technology of information and computer technology (Department 307) ()

    Direction: 12.04.01 - "Instrument making"

    Program:

    • Instrumentation Technology (Department 307) ()
    Direction: 24.04.04 - "Aircraft"

    Program:

    • Aviation electrical equipment (department 306) ()

    Direction: 27.04.04 - "Management in technical systems"

    Program:

    • Management and information technologies in technical systems (department 301) ()
    Direction: 27.04.05 - "Innovation"

    Program:

    • Innovation (Department 317) ()
    Direction: 38.04.02 - "Management"

    Program:

    • Management of Economic Security (Department 315) (full-time curriculum) (correspondence curriculum)

    The main scientific directions of fundamental and applied research of the departments of the institute are:

    • development of theory, algorithms and software for control systems of aircraft for various purposes;
    • simulation modeling of complex systems;
    • development of methods for analysis and synthesis of software and algorithmic support for information processing complexes;
    • creation of new information technologies;
    • study of issues of building on-board computing systems;
    • development of new technologies, metrological support and standardization of instrumentation devices and systems;
    • research and development of instrumental complexes for orientation and navigation;
    • development, modeling and computer-aided design of electronic and microelectronic electrical systems;
    • development and design of electric power and electromechanical on-board systems, including magnetogasdynamic, cryogenic, superconducting and other devices;
    • development and design of biotechnical systems for the restoration of body functions;
    • modeling the processes of informatization and management of objects of socio-economic and communicative purpose.

    At different times, prominent scientists worked at the departments of the institute:

    vice-president of the Academy of Sciences of the USSR, laureate of the Lenin and State Prizes, academician, Hero of Socialist Labor B.N. Petrov; Laureate of State Prizes, Academician of the Russian Academy of Sciences G.S. Pospelov; Laureates of State Prizes, Corresponding Members of the Academy of Sciences of the USSR and the Russian Academy of Sciences, Professors B.S. Sotskov and V.V. Petrov; Head of the Federal Agency for Industry, Corresponding Member of the Russian Academy of Sciences B.S. Alyoshin; Director General of Gos NIIAS Corresponding Member of the Russian Academy of Sciences S.Yu. Zheltov; laureates of the Lenin and State Prizes, professors S.F. Matveevsky and V.L. Morachevsky; Laureates of State Prizes, Professors A.D. Alexandrov, G.I. Atabekov, L.A. Voskresensky, A.I. Moskalev, V.Yu. Rutkovsky; honored workers of science and technology of the Russian Federation, professors A.I. Bertinov, O.M. Brekhov, D.A. Booth, A.N. Gavrilov, G.N. Lebedev, V.I. Matov, M.F. Rosin, B.A. Ryabov, N.P. Udalov.

    Institute graduated from:

    Academician-Secretary of the Department of Informatics, Computer Engineering and Automation of the Russian Academy of Sciences, laureate of the Lenin and State Prizes, Academician S.V. Emelyanov; Laureate of the State Prize, Academician I.M. Makarov; Corresponding Member of the Russian Academy of Sciences, Member of the Scientific Council for Control and Navigation of the Russian Academy of Sciences E.D. Teryaev; industry leaders: Hero of Socialist Labor, laureate of the Lenin and State Prizes, general designer (1982 - 1990) NPO Avtomatika i instrumentostroenie V.L. Lapygin; Deputy Chief Designer of the Research Institute of Automation and Instrumentation (1957 - 1970), Deputy Minister of Defense Industry (1970 - 1981), laureate of the Lenin and State Prizes V.P. Finogeev; Vice-President and First Deputy General Designer of the Energia Rocket and Space Corporation N.I. Zelenshchikov; Deputy Director and General Designer of NPO Automation and Instrument Engineering L.I. Kiselev; General Director of the Moscow Research and Production Complex JSC "Avionics" V.M. Petrov; General Director of the Moscow Institute of Electromechanics and Automation S.P. Kryukov; Director and Chief Designer of the Central Research Institute of Automation and Hydraulics V.L. Solunin; Director and Chief Designer of the State Research Institute of Instrument Engineering B.N. Gavrilin.

    The Institute actively cooperates with a number of leading enterprises of the aerospace complex:

    • State Scientific Center of the Russian Federation - State Unitary Enterprise "State Research Institute of Aviation Systems",
    • State Scientific Center of the Russian Federation - Central Institute of Aviation Motors. P.I. Baranova,
    • State Research Institute of Instrument Engineering,
    • Federal State Unitary Enterprise - Research Institute of Precision Instruments.
    • Open Joint Stock Company "Moscow Research and Production Complex "Avionics",
    • Moscow experimental design bureau "MARS",
    • Open Joint Stock Company Aeroelectromash Plant,
    • Scientific-Production Association named after. S.A. Lavochkin,
    • Base department "Technical systems for supporting blood circulation and respiration" at the Research Institute of Transplantology and Artificial Organs;
    • Russian Research Center "Kurchatov Institute" at the Institute of Superconductivity and Solid State Physics;
    • Financial and industrial association "New transport technologies";
    • Open Joint Stock Company JSCB "Yakor";
    • OKB im. Yakovlev;
    • Research Institute "Kulon";
    • OAO Sukhoi Design Bureau.

    A wide profile of specialist training, in-depth study of fundamental natural sciences, humanitarian and applied disciplines, mastering the latest calculation methods and advanced technologies, possession of modern computer technology allow graduates of the institute to find application for their knowledge and abilities in various areas of the national economy.

    Student opinion

    • German, 1 course:“They load ... Although the dean and deputy deans are wonderful - they console me if the exam fails. They teach well, the computer equipment is not bad, that is, in general, it is quite possible to study.”
    • Artem, 2nd year:“There is a lot of mathematics and other scientific subjects, teachers are very demanding of students. Mostly people who are familiar with technology and computers study here ... And, what’s cool, they don’t smoke much at the third faculty!”
    • Anton, 1 course:“The third faculty is the most advanced, the highest hopes are pinned on it! I chose this faculty and I like to study here. I am a patriot of my faculty!”

    Previously, this state standard had the number 652300 (according to the Classifier of areas and specialties of higher professional education)

    Ministry of Education of the Russian Federation

    STATE EDUCATIONAL STANDARD

    HIGHER PROFESSIONAL EDUCATION

    Direction of training of a graduate

    652300

    Qualification - engineer

    Effective from the moment of approval.

    2000 G.

    1. General characteristics of the direction of training

    graduate

    “Traffic Control Systems and Navigation”

    1.1 The direction of training of a graduate is approved by order of the Ministry of Education of the Russian Federation dated

    1.2. The list of educational programs (specialties) implemented within the framework of this area of ​​training a graduate:

    1.3. Graduate Qualification - engineer

    .

    The normative term for mastering the basic educational program for the training of an engineer “Traffic control systems and navigation” in full-time education is 5 years.

    1.4. Qualification characteristics of the graduate.

    1.4.1. Area of ​​professional activity.

    The field of professional activity in the areas of traffic control systems and navigation is a field of science and technology based on the combination of interacting information, computing, energy and mechanical systems built on elements and nodes of high-precision mechanics with electronic, electrical and computer components, providing the design and production of qualitatively new adaptive, optimal and intelligent traffic control systems and navigation systems for mobile objects for various purposes.

    1.4.2. Objects of professional activity.

    The objects of professional activity of graduates are devices and systems of orientation and control, flight-navigation and electric power complexes of aircraft, sea and river vessels and moving objects of other types, methods of their research, principles and methods of their design and production, methods and means of testing and monitoring devices , systems and complexes in general.

    1.4.3. Types of professional activity.

    An engineer in the direction of training "Traffic control systems and navigation" can, in accordance with fundamental and special training, perform the following types of professional activities:

      • research;
      • design and engineering;
      • organizational and managerial;
      • production and technological.

    Specific activities are determined by the content of the educational and professional program developed by the university.

    1.4.4. Tasks of professional activity.

    An engineer in the direction of "Traffic control systems and navigation" is prepared to solve the following types of tasks by type of professional activity.

    Research activities:

    • analysis of aircraft and mobile vehicles for various purposes as objects of orientation, stabilization and control;
    • creation of mathematical models of the movement of a moving object and complexes of interacting moving objects, which make it possible to predict the trend of their development as control objects
    and tactics of their application;
  • development of methods for mathematical and semi-natural modeling of dynamic systems “moving object - a complex of orientation, control, navigation and electric power systems of moving objects”;
  • development of programs and methods for testing devices, systems and complexes in the relevant field of activity.
  • Design activity:

    • formulating the goals of designing devices, systems and complexes, ensuring the choice of design criteria and indicators, building their structures and schemes, taking into account the specifics of the destination object and environmental aspects;
    • development of options for solving the problem, a systematic analysis of these options, the determination of compromise solutions in conditions of multi-criteria, uncertainty and for the purpose of planning the implementation of the project;
    • development of prototypes of devices, systems and complexes of the corresponding profile;
    • the use of computer technologies in the development of new samples of elements, devices, systems and complexes;
    • development of specifications, standards and technical descriptions of elements, devices, systems and complexes.

    Production and technological activities:

    • development of technological processes for the manufacture of parts and assemblies, assembly of instruments and assemblies of control systems, flight-navigation and electric power complexes of mobile objects;
    • organization of effective input control of components, components and assemblies of control and navigation systems and electric power complexes;
    • organization of metrological control of the main parameters of precision instruments, control systems, navigation and electric power complexes in the process of their manufacture;
    • use of computer technologies in the process of pre-production, manufacturing and control
    devices and complexes of the corresponding direction.

    Organizational and managerial activities:

    • organizing the work of a team of performers in pilot, serial production and on test bases, making decisions on management in a market economy, finding compromise solutions;
    • estimation of costs for production, debugging and introduction into serial production of the developed samples of new technology, cooperation with performers of related specialties in solving complex problems associated with devices, systems and complexes.

    1.4.5. Qualification requirements.

    Graduate training should provide qualification skills for solving professional problems:

    • implementation on the basis of a systematic approach of research, design, organizational and technological, production and management work in their professional activities;
    • development and research of models for describing and predicting the development of motion control systems and navigation methods for moving objects;
    • organization on a scientific basis of his work, the use of computer methods for collecting, storing, processing and analyzing information used in the field of his professional activity;
    • formulation of tasks related to the implementation of professional functions, using the methods of the sciences he studied to solve them;
    • use of specialized literature and other information data (including in foreign languages) to solve professional problems;
    • making professional decisions based on a set of data on the required properties of the designed equipment;
    • feasibility study and analysis of the developed equipment and technological processes.

    An engineer is methodically and psychologically prepared to change the type and nature of his professional activity, to work on interdisciplinary projects.

    The engineer must know:

    • resolutions, orders, orders of higher and other bodies, methodological, regulatory and guidance materials relating to the work performed;
    • prospects for technical development and features of the activities of an institution, organization, enterprise;
    • principles of operation, technical characteristics, design features of the developed and used technical means, materials and their properties;
    • basic requirements for technical documentation, materials, devices, systems and complexes as a whole;
    • modern achievements of science and technology, advanced and foreign experience in the principles of construction, design, research, testing and operation of devices, systems and complexes of traffic control, navigation and electric power complexes;
    • fundamentals of economics, organization of production, labor and management;
    • basics of labor legislation, rules and norms of labor protection, safety measures, industrial sanitation, fire protection and ecology.
    Opportunities to continue graduate education.

    An engineer who has mastered the main educational program of higher professional education in the direction of training a certified specialist “Traffic control systems and navigation” is prepared for postgraduate studies.

  • Requirements for the level of preparation of the applicant
  • 2.1. The previous level of education of the applicant is secondary (complete) general education.

    2.2. The applicant must have a state document on secondary (complete) general education, secondary vocational education or primary vocational education, if it contains a record of the bearer receiving secondary (complete) general education, or higher vocational education.

    3. General requirements for the main educational program

    in the direction of training a graduate

    “Traffic Control Systems and Navigation”

    3.1. Basic educational training program engineer is developed on the basis of this state educational standard of a graduate and includes a curriculum, programs of academic disciplines, and practice programs.

    3.2. The requirements for the mandatory minimum content of the basic educational program for the training of an engineer, the conditions for its implementation and the timing of its development are determined by this state educational standard.

    3.3. The main educational program for training an engineer consists of disciplines of the federal component, disciplines of the national-regional (university) component, disciplines of the student's choice, as well as optional disciplines. Disciplines and courses of the university component and, at the choice of the student, in each cycle should substantially complement the disciplines indicated in the federal component of the cycle.

    3.4. The main educational program for the training of an engineer should provide for the student to study the following disciplines:

    • GSE cycle - General humanitarian and socio-economic disciplines;
    • EH cycle
    – General mathematical and natural science disciplines;
  • OPD cycle - General professional disciplines;
  • SD cycle - Special disciplines, including disciplines of specializations;
  • FTD - Optional disciplines.
  • Mandatory minimum content requirements
  • graduate

    “Traffic Control Systems and Navigation”

    Name of disciplines and their main sections

    General humanitarian and socio-economic

    disciplines

    Federal component

    Foreign language

    The specifics of articulation of sounds, intonation, accentuation and rhythm of neutral speech in the target language; the main features of the full style of pronunciation, characteristic of the sphere of professional communication; transcription reading. Lexical minimum in the amount of 4000 educational lexical units of a general and terminological nature. The concept of differentiation of vocabulary by areas of application (everyday, terminological, general scientific, official, and others). The concept of free and stable phrases, phraseological units. The concept of the main ways of word formation. Grammar skills that ensure communication without distortion of meaning in written and oral communication of a general nature; the main grammatical phenomena characteristic of the professional speech. The concept of everyday literary, official business, scientific styles, the style of fiction. The main features of the scientific style. Culture and traditions of the countries of the studied language, rules of speech etiquette. speaking. Dialogical and monologue speech using the most common and relatively simple lexical and grammatical means in the main communicative situations of informal and official communication. Fundamentals of public speech (oral communication, report). Listening. Understanding dialogic and monologue speech in the field of everyday and professional communication. Reading. Types of texts: simple pragmatic texts and texts on a wide and narrow profile of the specialty. Letter. Types of speech works: abstract, abstract, theses, messages, private letter, business letter, biography.

    Physical Culture

    Physical culture in the general cultural and professional training of students. Its socio-biological foundations. Physical culture and sport as social phenomena of society. Legislation of the Russian Federation on physical culture and sports. Physical culture of personality. Fundamentals of a student's healthy lifestyle. Features of the use of means of physical culture to optimize performance. General physical and special training in the system of physical education. Sport. Individual choice of sports or exercise systems. Professional-applied physical training of students. Fundamentals of methods of self-study and self-control over the state of your body.

    National history

    Essence, forms, functions of historical knowledge. Methods and sources of the study of history. The concept and classification of a historical source. Domestic historiography in the past and present: general and special. Methodology and theory of historical science. The history of Russia is an integral part of world history.

    Ancient heritage in the era of the Great Migration of Nations. The problem of the ethnogenesis of the Eastern Slavs. The main stages of the formation of statehood. Ancient Rus' and nomads. Byzantine-Old Russian connections. Features of the social structure of Ancient Rus'. Ethno-cultural and socio-political processes of the formation of Russian statehood. Acceptance of Christianity. The spread of Islam. The evolution of East Slavic statehood in the 11th-11th centuries. Socio-political changes in the Russian lands in the 111th-17th centuries. Rus' and the Horde: problems of mutual influence.

    Russia and the medieval states of Europe and Asia. The specifics of the formation of a unified Russian state. Rise of Moscow. Formation of the class system of organization of society. Reforms of Peter 1. Age of Catherine. Prerequisites and features of the formation of Russian absolutism. Discussions about the genesis of autocracy.

    Features and main stages of Russia's economic development. The evolution of forms of land ownership. The structure of feudal landownership. Serfdom in Russia. Manufacturing and industrial production. Formation of an industrial society in Russia: general and special. Social thought and features of the social movement in Russia in the 19th century. Reforms and reformers in Russia. Russian culture of the 19th century and its contribution to world culture.

    The role of the twentieth century in world history. Globalization of social processes. The problem of economic growth and modernization. Revolutions and reforms. Social transformation of society. The clash of tendencies of internationalism and nationalism, integration and separatism, democracy and authoritarianism.

    Russia at the beginning of the 20th century The objective need for the industrial modernization of Russia. Russian reforms in the context of global development at the beginning of the century. Political parties in Russia: genesis, classification, programs, tactics.

    Russia in the conditions of world war and national crisis. Revolution of 1917 Civil war and intervention, their results and consequences. Russian emigration. Socio-economic development of the country in the 20s. NEP. Formation of a one-party political regime. Education of the USSR. Cultural life of the country in the 20s. Foreign policy.

    The course towards building socialism in one country and its consequences. Socio-economic transformations in the 30s. Strengthening the regime of Stalin's personal power. resistance to Stalinism.

    USSR on the eve and in the initial period of the Second World War. The Great Patriotic War.

    Socio-economic development, socio-political life, culture, foreign policy of the USSR in the post-war years. Cold War.

    Attempts to implement political and economic reforms. Scientific and technological revolution and its influence on the course of social development.

    USSR in the mid-60s-80s: the growth of crisis phenomena.

    Soviet Union in 1985-1991 Perestroika. 1991 coup attempt and failure. The collapse of the USSR. Belavezha agreements. October events of 1993

    Formation of the new Russian statehood (1993-1999). Russia on the Way of Radical Socio-Economic Modernization. Culture in modern Russia. Foreign policy activity in the new geopolitical situation.

    Culturology

    Structure and composition of modern cultural knowledge. Culturology and philosophy of culture, sociology of culture, cultural anthropology. Culturology and history of culture. Theoretical and applied cultural studies. Methods of cultural research. Basic concepts of cultural studies: culture, civilization, morphology of culture, functions of culture, subject of culture, cultural genesis, dynamics of culture, language and symbols of culture, cultural codes, intercultural communications, cultural values ​​and norms, cultural traditions, cultural picture of the world, social institutions of culture, cultural self identity, cultural modernization. Typology of cultures. Ethnic and national, elite and mass culture. Eastern and Western types of cultures. Specific and “middle” cultures. local cultures. The place and role of Russia in world culture. Tendencies of cultural universalization in the world modern process. Culture and nature. Culture and Society. Culture and global problems of our time. Culture and personality. Enculturation and socialization.

    Political science

    Object, subject and method of political science. Functions of political science. Political life and power relations. The role and place of politics in the life of modern societies. Social functions of politics. History of political doctrines. Russian political tradition: origins, socio-cultural foundations, historical dynamics. Modern political schools. Civil society, its origin and features. Features of the formation of civil society in Russia. Institutional aspects of politics. Political power. Politic system. Political regimes, political parties, electoral systems. Political relations and processes. Political conflicts and ways to resolve them. political technologies. Political management. Political modernization. Political organizations and movements. political elites. political leadership. Sociocultural aspects of politics. World politics and international relations. Features of the world political process. National-state interests of Russia in the new geopolitical situation. Methodology of cognition of political reality. Paradigms of political knowledge. Expert political knowledge; political analytics and forecasting.

    Jurisprudence

    State and law. Their role in society. Rule of law and normative-legal acts. The main legal systems of modernity. International law as a special system of law. Sources of Russian law Law and by-laws. The system of Russian law. Branches of law. Offense and legal responsibility. The value of law and order in modern society. Constitutional state. The Constitution of the Russian Federation is the fundamental law of the state. Features of the federal structure of Russia. The system of public authorities in the Russian Federation. The concept of civil law. Individuals and legal entities. Ownership. Obligations in civil law and responsibility for their violation. Inheritance law. Marriage and family relations. Mutual rights and obligations of spouses, parents and children. Family law liability. Employment contract (contract). Labor discipline and responsibility for its violation. Administrative offenses and administrative responsibility. The concept of crime. Criminal liability for committing crimes. Environmental law. Features of legal regulation of future professional activity. Legal basis for the protection of state secrets. Legislative and normative-legal acts in the field of information protection and state secrets.

    Psychology and pedagogy

    Psychology: subject, object and methods of psychology. The place of psychology in the system of sciences. The history of the development of psychological knowledge and the main directions in psychology. Individual, personality, subject, individuality. Mind and body. Mind, behavior and activity. Basic functions of the psyche. The development of the psyche in the process of ontogenesis and phylogenesis. Brain and psyche. The structure of the psyche. Relationship between consciousness and the unconscious. Basic mental processes. The structure of consciousness. cognitive processes. Feeling. Perception. Performance. Imagination. Thinking and intelligence. Creation. Attention. mnemonic processes. Emotions and feelings. Mental regulation of behavior and activity. Communication and speech. Psychology of Personality. Interpersonal relationships. Psychology of small groups. Intergroup relations and interactions.

    Pedagogy: object, subject, tasks, functions, methods of pedagogy. The main categories of pedagogy: education, upbringing, training, pedagogical activity, pedagogical interaction, pedagogical technology, pedagogical task. Education as a universal value. Education as a sociocultural phenomenon and pedagogical process. Educational system of Russia. Goals, content, structure of continuous education, unity of education and self-education. pedagogical process. Educational, upbringing and developmental functions of learning. Education in the pedagogical process. General forms of organization of educational activities. Lesson, lecture, seminars, practical and laboratory classes, dispute, conference, test, exam, optional classes, consultation. Methods, techniques, means of organizing and managing the pedagogical process. The family as a subject of pedagogical interaction and the socio-cultural environment for the upbringing and development of the individual. Management of educational systems.

    Russian language and culture of speech

    Styles of the modern Russian literary language. Language norm, its role in the formation and functioning of the literary language.

    Speech interaction. Basic units of communication. Oral and written varieties of the literary language. Normative, communicative, ethical aspects of oral and written speech.

    Functional styles of the modern Russian language. Interaction of functional styles.

    Scientific style. The specificity of the use of elements of different language levels in scientific speech. Speech norms of educational and scientific fields of activity.

    Official business style, scope of its functioning, genre diversity. Language formulas of official documents. Techniques for unifying the language of service documents. International properties of Russian official business writing. Language and style of administrative documents. Language and style of commercial correspondence. Language and style of instructive and methodological documents. Advertising in business speech. Documentation rules. Speech etiquette in the document.

    Genre differentiation and selection of language means in a journalistic style. Features of oral public speech. speaker and his audience. Main types of arguments. Speech preparation: choice of topic, purpose of speech, search for material, beginning, deployment and completion of speech. Basic methods of searching for material and types of auxiliary materials. Verbal design of public speaking. Understanding, informativeness and expressiveness of public speech.

    Colloquial speech in the system of functional varieties of the Russian literary language. Conditions for the functioning of colloquial speech, the role of extralinguistic factors.

    A culture of speech. The main directions of improving the skills of literate writing and speaking.

    Sociology

    Background and socio-philosophical premises of sociology as a science. Sociological project of O. Kont. Classical sociological theories. Modern sociological theories. Russian sociological thought. Society and social institutions. World system and processes of globalization. Social groups and communities. Types of communities. community and personality. Small groups and collectives. social organization. social movements. Social inequality, stratification and social mobility. The concept of social status. Social interaction and social relations. Public opinion as an institution of civil society. Culture as a factor of social change. Interaction of economy, social relations and culture. Personality as a social type. Social control and deviation. Personality as an active subject. social change. Social revolutions and reforms. The concept of social progress. Formation of the world system. Russia's place in the world community. Methods of sociological research.

    Philosophy

    The subject of philosophy. Place and role of philosophy in culture. The formation of philosophy. Main directions, schools of philosophy and stages of its historical development. The structure of philosophical knowledge.

    The doctrine of being. Monistic and pluralistic concepts of being, self-organization of being. The concepts of material and ideal. Space, time. Movement and development, dialectics. Determinism and indeterminism. Dynamic and statistical regularities. Scientific, philosophical and religious pictures of the world.

    Man, society, culture. Human and nature. Society and its structure. Civil society and the state. Man in the system of social relations. Man and the historical process; personality and masses, freedom and necessity. Formational and civilizational concepts of social development.

    The meaning of human existence. Violence and non-violence. Freedom and responsibility. Morality, justice, law. Moral values. Ideas about the perfect person in different cultures. Aesthetic values ​​and their role in human life. Religious values ​​and freedom of conscience.

    Consciousness and knowledge. Consciousness, self-consciousness and personality. Knowledge, creativity, practice. Faith and knowledge. Understanding and explanation. Rational and irrational in cognitive activity. The problem of truth. Reality, thinking, logic and language. Scientific and non-scientific knowledge. Scientific criteria. The structure of scientific knowledge, its methods and forms. The growth of scientific knowledge. Scientific revolutions and changes in the types of rationality. Science and technology.

    The future of humanity. Global problems of the present. Interaction of civilizations and future scenarios.

    Economy

    Introduction to economic theory. Good. Needs, resources. economic choice. Economic relations. Economic systems. The main stages in the development of economic theory. Methods of economic theory.

    Microeconomics. Market. Supply and demand. Consumer preferences and marginal utility. demand factors. Individual and market demand. The income effect and the substitution effect. Elasticity. The offer and its factors. Law of diminishing marginal productivity. scale effect. Types of costs. Firm. Revenue and profit. The principle of profit maximization. Proposal of a perfectly competitive firm and industry. Efficiency of competitive markets. market power. Monopoly. Monopolistic competition. Oligopoly. Antimonopoly regulation. Demand for factors of production. Labor market. Demand and supply of labor. Wages and employment. capital market. Interest rate and investment. Land market. Rent. General balance and well-being. Distribution of income. Inequality. Externalities and public goods. The role of the state.

    Macroeconomics. The national economy as a whole. Circulation of income and products. GDP and how to measure it. national income. disposable personal income. Price indices. Unemployment and its forms. Inflation and its types. Economic cycles. macroeconomic equilibrium. Aggregate demand and aggregate supply. stabilization policy. Equilibrium in the commodity market. consumption and savings. Investments. Government spending and taxes. Multiplier effect. Fiscal policy. Money and their functions. Equilibrium in the money market. Money multiplier. Banking system. Money-credit policy. Economic growth and development. International economic relations. Foreign trade and trade policy. Payment balance. Exchange rate.

    Features of the transitional economy of Russia. Privatization. Forms of ownership. Entrepreneurship. Shadow economy. Labor market. Distribution and income. Transformations in the social sphere. Structural shifts in the economy. Formation of an open economy.

    Disciplines of the student's choice, established

    General mathematical and natural sciences

    disciplines

    Federal component

    Mathematics

    Mathematics (general course)

    Analytic geometry and linear algebra; sequences and rows; differential and integral calculus; vector analysis and elements of field theory; harmonic analysis; differential equations; numerical methods; functions of a complex variable; elements of functional analysis; operational calculus; probability and statistics: probability theory, random processes, statistical estimation and hypothesis testing, statistical methods for processing experimental data.

    Analytical computing systems

    Classification of analytical computing systems. Basic algorithms providing systems of analytical calculations. Systems of analytical calculations REDUCE, MAPLE, MathCad and so on. systems management. Data structure and objects. Algorithms for automated derivation of equations describing motion control and navigation systems.

    Computer science

    The concept, general characteristics of the processes of collecting, transmitting, processing and accumulating information; technical and software tools for the implementation of information processes; models for solving functional and computational problems; algorithmization and programming; high-level programming languages; Database; software and programming technologies; local and global computer networks; the basics of protecting information and information constituting a state secret; information security methods; computer practice.

    Physical foundations of mechanics; vibrations and waves; molecular physics and thermodynamics; electricity and magnetism; optics; atomic and nuclear physics; physical practice.

    Chemical systems: solutions, dispersion systems, electrochemical systems, catalysts, catalytic systems, polymers and oligomers. Chemical thermodynamics and kinetics: energy of chemical processes, chemical and phase equilibrium, reaction rate and methods of its regulation, oscillatory reactions. Reactivity of substances: chemistry and the periodic system of elements, acid-base and redox properties of substances, chemical bonding, complementarity; chemical identification: qualitative and quantitative analysis, analytical signal, chemical and physico-chemical and physical analysis, chemical workshop.

    Ecology

    Biosphere and man: structure of the biosphere, ecosystems; the relationship between the organism and the environment; ecology and human health; global environmental issues; ecological principles of rational use of natural resources and nature protection; fundamentals of environmental economics; environmental protection equipment and technologies; fundamentals of environmental law; professional responsibility; international cooperation in the field of the environment.

    National-regional (university) component

    General professional disciplines

    Federal component

    Descriptive geometry. Engineering graphics

    1. Descriptive geometry.

    Introduction. The subject of descriptive geometry. Specifying a point, line, plane, and polyhedrons on a complex Monge drawing. positional tasks. Metric tasks. Drawing conversion methods. Polyhedra. Curved lines. Surfaces. Surfaces of revolution. Ruled surfaces. screw surfaces. cyclic surfaces. Generalized positional problems. Metric tasks. Construction of unfolded surfaces. Tangent lines and planes to a surface. Axonometric projections.

    2. Engineering graphics.

    Design documentation. Making drawings. Elements of detail geometry. Images, inscriptions, designations. Axonometric projections of details. Images and designations of elements of details. Image and thread designation. Working drawings of details. Making sketches of machine parts. Images of assembly units. Assembly drawing of products. Computer graphics.

    Mechanics

    Theoretical mechanics

    Kinematics. The subject of kinematics. Vector way to specify the movement of a point. The natural way to specify the movement of a point. The concept of an absolutely rigid body. Rotation of a rigid body around a fixed axis. Plane motion of a rigid body and motion of a flat figure in its plane. Motion of a rigid body around a fixed point or spherical motion. General case of motion of a free rigid body. Absolute and relative movement of a point. Complex motion of a rigid body.

    Dynamics and elements of statics. The subject of dynamics and statics. Laws of mechanics Galileo-Newton. Problems of dynamics. Free rectilinear oscillations of a material point. Relative motion of a material point. mechanical system. Mass of the system. Differential equations of motion of a mechanical system. Quantity of motion of a material point and a mechanical system. The moment of momentum of a material point relative to the center and axis. Kinetic energy of a material point and a mechanical system. The concept of a force field. Force system. Analytical conditions for the equilibrium of an arbitrary system of forces. The center of gravity of a rigid body and its coordinates. d'Alembert's principle for a material point. Differential equations of translational motion of a rigid body. Determination of dynamic reactions of bearings during rotation of a rigid body around a fixed axis. Motion of a rigid body around a fixed point. Elementary theory of the gyroscope. Connections and their equations. The principle of possible movements. Generalized coordinates of the system. Differential equations of motion of a mechanical system in generalized coordinates or Lagrange equations of the second kind. Hamilton-Ostrogradsky principle. The concept of equilibrium stability. Small free vibrations of a mechanical system with two (or n) degrees of freedom and their properties, natural frequencies and shape factors.

    Impact phenomenon. Theorem on the change in the kinetic moment of a mechanical system upon impact.

    Machine parts and design basics

    Classification of knots, mechanisms and details. Fundamentals of mechanism design, development stages. Part requirements, performance criteria and factors that influence them. Mechanical transmissions: gear, worm, planetary, wave, lever, friction, belt, chain, screw-nut transmissions; strength transfer calculations. Shafts and axles, design and strength calculations. Rolling and sliding bearings, selection and strength calculations. Sealing devices. Designs of bearing units. Connections of parts: threaded, riveted, welded, soldered, glued, with an interference fit, keyed, gear, pin, terminal, profile; design and calculations of joints for strength. elastic elements. Couplings of mechanical drives. Body parts of mechanisms.

    Applied fluid dynamics

    and thermogasdynamics

    Basic equations of hydroaerodynamics; aerodynamic forces and moments acting on a moving object; distribution of disturbances in a gaseous medium; supersonic flow around solid bodies; physical picture of the occurrence of aerodynamic forces and moments; experimental determination of aerodynamic coefficients. Determination of flight and maneuvering characteristics of a moving object; basic equations of hydrodynamics; the first and second laws of thermodynamics; application of the first law of thermodynamics to ideal gases; theoretical foundations of gas flow in channels.

    Materials Science

    . Structural materials technology

    The structure of metals, diffusion processes in a metal, the formation of the structure of metals and alloys during crystallization, plastic deformation, the effect of heating on the structure and properties of a deformed metal, the mechanical properties of metals and alloys. Structural metals and alloys. Theory and technology of heat treatment of steel. Chemical-thermal treatment. Heat-resistant, wear-resistant, tool and stamping alloys. Electrical materials, rubber, plastics. Special materials (for example: beryllium, sapphire, etc. and their alloys) in devices, systems and control complexes and methods for processing these materials.

    electrical and Electronics

    Theoretical foundations of electrical engineering

    Basic concepts and laws of the electromagnetic field and the theory of electrical and magnetic circuits; theory of linear electrical circuits (circuits of direct, sinusoidal and non-sinusoidal currents), methods of analysis of linear circuits with two-pole and multi-pole elements; three-phase circuits; transient processes in linear circuits and methods for their calculation; non-linear electric and magnetic circuits of direct and alternating current; transient processes in non-linear circuits; analytical and numerical methods for the analysis of nonlinear circuits; circuits with distributed parameters (steady and transient modes); digital (discrete) circuits and their characteristics; electromagnetic field theory, electrostatic field; stationary electric and magnetic fields; alternating and electromagnetic field; surface effect and proximity effect; electromagnetic shielding; numerical methods for calculating electromagnetic fields under complex boundary conditions; modern packages of applied programs for calculating electrical circuits and electromagnetic fields on a computer.

    General electrical and electronic engineering

    Introduction. Electrical and magnetic circuits. Basic definitions, topological parameters and methods for calculating electrical circuits. Analysis and calculation of linear AC circuits. Analysis and calculation of electrical circuits with non-linear elements. Analysis and calculation of magnetic circuits. Electromagnetic devices and electrical machines. Electromagnetic devices.

    Transformers. DC machines (MPT). asynchronous machines. synchronous machines. Fundamentals of electronics and electrical measurements.

    Element base of modern electronic devices. Sources of secondary power supply. Amplifiers of electrical signals. Impulse and self-generator devices. Fundamentals of digital electronics. Microprocessor means. Electrical measurements and instruments.

    Metrology, standardization and certification

    Theoretical foundations of metrology. The basic concepts associated with the objects of measurement: properties, magnitude, quantitative and qualitative manifestations of the properties of objects of the material world. Basic concepts related to measuring instruments (SI). Patterns of formation of the measurement result, the concept of error, sources of errors. The concept of multiple measurement. Algorithms for processing multiple measurements. The concept of metrological support. Organizational, scientific and methodological foundations of metrological support. Legal basis for ensuring the uniformity of measurements. The main provisions of the law of the Russian Federation on ensuring the uniformity of measurements. The structure and functions of the metrological service of an enterprise, organization, institution that are legal entities.

    Historical foundations for the development of standardization and certification. Certification, its role in improving product quality and development at the international, regional and national levels. Legal bases of standardization. International Organization for Standardization (ISO). The main provisions of the state standardization system (SSS). Scientific base of standardization. Determining the optimal level of unification and standardization. State control and supervision over compliance with the requirements of state standards. Main goals and objects of certification. Terms and definitions in the field of certification. Product quality and consumer protection. Schemes and certification systems. Conditions for the implementation of certification. Mandatory and voluntary certification. Rules and procedure for certification. Certification bodies and testing laboratories. Accreditation of certification bodies and testing (measuring) laboratories. Service certification. Certification of quality systems.

    Theory of automatic control

    Concepts, mathematical models of continuous and discrete linear objects and systems: "input-output", "input-state-output" models, transfer functions, frequency characteristics, convolutions; system characteristic of communication between models; differential and difference piecewise linear models of non-linear objects and systems; general non-linear object models; analysis of steady state and transient regimes; methods for analyzing the stability of linear objects and systems: root, frequency and algebraic methods for continuous discrete time; absolute stability criteria; methods of synthesis of deterministic systems: synthesis of modal, locally optimal and optimal continuous and discrete systems; systems that are optimal according to H-criteria; qualitative characteristics of synthesis methods; methods of synthesis of stochastic and adaptive systems: synthesis of limit-optimal stochastic systems; methods for identifying static and dynamic objects, the velocity gradient method, the stochastic approximation method; synthesis of coarse systems: concept of synthesis in Hardy space, theorems on qualitative properties of coarse systems; large-scale systems: stability analysis using Lyapunov vector functions and Lyapunov-Krasovsky functionals; synthesis of large-scale systems of locally optimal and suboptimal control.

    Manufacturing technology of devices and systems

    Technology as a science, type and area of ​​technical activity; technological cycle, its stages and characteristics; unified system of technological preparation of production, its purpose and structure; technological process and its main indicators; technological processes and equipment for casting, stamping, powder metallurgy, welding, metal processing; heat treatment, coating and gluing, assembly technology; technological processes of control, adjustment and testing; automation of technological processes.

    Physical and theoretical foundations of elements

    and traffic control and navigation systems

    Non-inertial reference systems; differences between physical forces, moments and pseudo-forces; Newtonian and non-Newtonian fluids; research of electrostatic, magnetic and electromagnetic fields for levitation of bodies; ferromagnets, currents in electrolytes; physical foundations of optical gyroscopy and optical communication systems, etc.

    Organization and planning of production

    The enterprise as an economic entity in the market infrastructure, the market for goods, means of production, securities, commercial activities of enterprises, enterprises and banks, business plan, economic efficiency of investments, technical and economic analysis of engineering solutions, functional cost analysis of products. Life cycle of products, organization of innovative activity of the enterprise; organization of main and auxiliary production, production process, product certification, labor regulation, planning of production and economic activities; types and forms of management, strategic management, marketing; methods of consumer demand research, marketing planning.

    Life safety

    Man and environment. Characteristic states of the “human-environment” system. Fundamentals of labor physiology and comfortable living conditions in the technosphere. comfort criteria. Negative factors of the technosphere, their impact on humans, the technosphere and the natural environment. Security Criteria. Hazards of technical systems: failure, probability of failure, qualitative and quantitative analysis of hazards. Means to reduce the risk of injury and the harmful effects of technical systems. Operational safety of automated and robotic production. Life safety management. Legal and normative-technical foundations of management.

    Systems for monitoring safety and environmental requirements. Professional selection of operators of technical systems. Economic consequences and material costs for ensuring life safety. International cooperation in the field of life safety.

    Emergencies (ES) of peacetime and wartime; forecasting and assessment of damaging factors of emergencies; civil defense and protection of the population and territories in emergency situations; sustainability of the functioning of economic facilities in emergency situations; liquidation of consequences of emergency situations; features of protection and elimination of the consequences of emergencies at the facilities of the industry.

    National-regional (university) component

    Disciplines of the student's choice, established by the university

    Special disciplines

    Speciality

    “Controllers, flight and navigation

    and electric power complexes

    aircraft”

    Technical systems and complexes

    Functional diagrams, static and dynamic characteristics of elements and devices of control, flight-navigation and electric power complexes; stability characteristics and reliability of devices, their design characteristics. Primary information converters and their metrological characteristics, coordination of their characteristics with the characteristics of amplifiers. Pulse devices based on digital integrated circuits; microprocessors and devices based on them. Executive elements and devices; principles of operation of typical schemes of elements and devices; methods for calculating and designing elements and devices of control, flight-navigation and electric power systems using automation tools.

    Special technology

    Technology for the production of elements, components, devices and instruments for control, flight and navigation and electric power systems; ensuring accuracy and reliability in manufacturing, automation of production processes; control, adjustment and testing of automation and electric power equipment during its manufacture; advanced technologies, silicon micro technology, anisotropic shaping methods, laser technologies; modern test methods.

    Simulation and automated

    design of elements and systems

    Modeling as a method of scientific knowledge and basic concepts of modeling theory; mathematical models of elements operating on various physical principles. Formalization and algorithmization of systems functioning processes; system modeling tools; modern software products for system modeling; planning machine experiments with system models; simulation of systems in real time; processing and analysis of simulation results. Design automation, main components and CAD tools, formalization of computer-aided design tasks; computational algorithms for solving computer-aided design problems; computer-aided design software.

    Systems of control, flight and navigation and electric power

    complexes

    Classification of systems; composition and purpose of systems; principles of building systems; mathematical models; requirements for static and dynamic characteristics of technical means of systems; intrasystem and intersystem electromagnetic compatibility of complexes, methods of calculation and design of various systems of complexes; ways and methods of integration and optimal processing of information.

    Microprocessor technology in devices

    and systems

    Microprocessor technology in devices and systems: microprocessor control and information processing; microprocessor devices in the structure of aerospace complexes; functional algorithms and features of their implementation; general requirements for microprocessor devices; functional structure of microprocessor devices; interfaces of microprocessor devices; organization of communication lines, protection against interference; topological structure of microprocessor devices; microcomputer structure.

    Electromechanics

    Classification and principle of operation of the main types of electromechanical energy converters; the principle of reversibility of electrical machines; magnetic and electrical circuits of electromechanical converters; energy conversion in electrical machines. The main design equation and general ways to improve the performance of electrical machines; taking into account dynamic indicators when choosing the main dimensions of electromechanical converters; losses and efficiency of electrical converters, thermal and vibrational fields of electromechanical energy converters.

    Disciplines of specialization

    Specialty “Devices and systems of orientation,

    stabilization and navigation”

    Applied theory of gyroscopes

    Symmetric fast rotating gyroscope; gyroscope motion equation and its main properties; two-stage gyroscopes, typical design schemes; gyroscope in gimbals, gyroscope motion equations; dynamically adjustable vibration gyroscope; spherical gyroscopes, constructive schemes, equations of motion, errors; gyroscopic stabilizers, schemes, principle of operation, equations of motion, stability, accuracy; general recommendations on the choice of scheme, design, parameters of gyrostabilizers. Angle and angular velocity sensors: circuit diagrams, equations of motion, errors, dynamic characteristics; integrating gyroscopes: circuit diagrams, equations of motion. Float integrating gyroscopes; optical gyroscopes; gyroscopic verticals, their errors; course gyroscopic instruments and systems, their schemes, equations of motion, errors; gyroscopic systems of spatial orientation, principles of their construction, typical schemes.

    Automatic control

    moving objects

    Basic hydroaerodynamic and structural schemes of moving objects, equations of their motion, stability and controllability of a moving object; “improvement” of movement characteristics by means of automation; automatic stabilization and control of a moving object; autopilots, methods for calculating their parameters; guidance systems; ballistic missile control systems; technical means of implementing autopilots.

    Inertial navigation systems

    Physical foundations of the discipline; the theory of M. Schuler; apparent acceleration, methods for constructing inertial navigation systems, their mathematical models and model analysis; autonomous and correctable inertial navigation systems, the study of their errors and methods for improving accuracy; exhibition and calibration of the gyro-stabilized platform of the inertial navigation system; strapdown inertial navigation systems.

    Principles of construction of devices and systems

    orientation, stabilization and navigation

    The general task of aircraft navigation; types of given flight paths; models of the figure of the Earth; equations of motion of a moving object; optimality of program trajectories, two-stage optimization scheme; principles of formation and calculation methods of a priori established and continuously calculated program trajectories; flight and navigation complex, its systems and elements; onboard computer as a central navigation computer.

    Metrological assurance of measurements in

    Methods and means of electrical measurements; accounting for economic factors; basics of metrology; measurement errors and results processing; accuracy classes of measuring instruments; measurement of currents, voltages, power, frequency and phase; measurement and reproduction of random signals; measurement automation.

    Electronic converters in devices with an analog feedback loop, electronic converters in devices with a digital feedback loop, typical circuits, their features; methods for calculating the parameters of the feedback loop.

    Reliability of orientation and stabilization systems

    and navigation

    The problem of systems reliability, criteria and characteristics of reliability; the main factors affecting reliability; the main indicators of reliability of non-reserved non-recoverable objects; basic theoretical laws of reliability; methods for calculating the reliability of the simplest objects; methods for improving reliability; reservation types; methods for calculating reserved objects; ensuring a given indicator of system reliability; principles of building redundant systems and optimizing their structures.

    Special microprocessors and devices in

    orientation, stabilization and navigation systems

    Typical schemes and characteristics of microprocessors; development of algorithms that provide an increase in the dynamic properties of the system, a decrease in their errors; the use of microprocessors for information processing.

    Instrument testing and maintenance

    and systems of orientation, stabilization and navigation

    Test tasks; methods of semi-natural modeling of devices and systems on dynamic modeling complexes; methods of mathematical modeling on analog and digital computers. Fundamentals of constructing methods for testing devices and systems; the principle of modeling operating conditions, stands and equipment that simulate operating conditions. Determination of the characteristics of devices and systems during testing; the use of control computers in testing systems, devices and their elements.

    09

    Design of devices and systems

    and their operation

    Analysis of the terms of reference for the design of devices and systems; methodology for designing devices, taking into account the selected circuit and calculating its main characteristics, taking into account the specified operating conditions; design features of superprecision instruments; Documentation with the help of modern computer graphics systems.

    Design of elements, devices and systems

    Operating conditions of devices and systems; main elements of gyro instruments and systems; methods for calculating magnetic, electromagnetic, electrostatic, electrodynamic, thermal, hydrostatic, hydro- and gas-dynamic processes, friction and wear processes, vibration and vibro-impact processes, as well as dynamic processes in automatic control systems; the influence of the characteristics of the instrument elements on the output characteristics of gyro instruments and systems.

    Elements of automatic control systems

    Angle sensors in devices and systems of orientation, stabilization and navigation; actuators: torque sensors, stabilization motors; electromechanical converters; electromechanical, electrohydraulic, pneumatic and gas servomotor.

    Analytical Mechanics and Theory of Oscillations

    Determining the position of a rigid body. Euler angles. Theory of finite rotations of a rigid body. Rodrigues-Hamilton parameters. Cayley-Klein parameters. Perturbation theory. Forced vibrations of a linear system with a finite number of degrees of freedom. Nonlinear fluctuations. General Methods of Nonlinear Mechanics

    Strength of materials

    Basic concepts. Section method. Central stretch - compression. Shift. Geometric characteristics of sections. Straight transverse bend. Torsion. Oblique bending, eccentric tension - compression. Elements of rational design of the simplest systems.

    Calculation of statically determinate rod systems. Method of forces, calculation of statically indeterminate rod systems. Analysis of the stressed and deformed state at a point of the body. Compound resistance, strength theory calculation. Calculation of momentless shells of revolution. Rod stability. Longitudinal-transverse bend. Calculation of elements of structures moving with acceleration. Hit. Fatigue. Calculation by bearing capacity.

    Disciplines of specialization

    Specialty “Control systems

    aircraft”

    Flight mechanics

    Introduction to aviation and space technology: the history of the development of aviation, rocket technology and astronautics; aerodynamic schemes, controls; aircraft types; flight control systems; automatic and automated systems. Aerodynamics and gas dynamics: characteristics of liquid and gas flows; equations of motion of liquid and gas, laws of expiration; conditions for dynamic similarity of flows; flow around bodies; laminar and turbulent boundary layer. Aerodynamic and gas-dynamic forces and moments acting on the aircraft; high speed aerodynamics. Flight dynamics: classification of aircraft control systems; control of forces and moments; spatial traffic control; separation of equations into equations of longitudinal and lateral motion; linearization of the equations of longitudinal and lateral motion of the aircraft. Transfer functions, stability and controllability characteristics, control laws, hardware composition; influence of elastic deformations of the body of the aircraft and fluctuations of the liquid in the tanks on the dynamics of the movement of the aircraft in the central gravitational field.

    Microprocessor devices

    control systems

    Microprocessor control: control microprocessor devices in the structure of aerospace complexes; functional algorithms and features of their implementation; general requirements for control microprocessor devices. Functional structure of control microprocessor devices; organization of communication lines, protection against interference; topological structure of control microprocessor devices; microcomputer structure in control microprocessor devices. Synthesis of the structure of control microprocessor devices; automation tools for designing control microprocessor devices; multitransputer computing environments and neurocomputers.

    Control system design

    aircraft

    The main goals of automating the design of automatic control systems (ACS); general characteristics and specifics of computer-aided design systems (CAD) ACS; CAD classification according to standards; a set of design automation tools; features of computer graphics CAD ACS. Fundamentals of the system engineering method; general and special software; numerical methods and optimization methods. The main stages of solving design and technological problems with the use of computer technology; automation of the formation of text and graphic design and technological documentation; standard solutions in the field of CAD ACS aircraft.

    Information and measuring systems

    and aircraft devices

    Modern information-measuring complexes of aircraft flight systems: measuring instruments-converters, their nomenclature and characteristics. Dynamic characteristics and mathematical models of measuring and converting devices; methods and means for measuring flight parameters and aircraft propulsion systems; technical means of displaying information on board the aircraft. Devices and systems of orientation and navigation; fundamentals of the applied theory of the gyroscope; gyroscopic sensors of aircraft orientation angles, angular velocities and accelerations. Gyroscopes of non-traditional types (vibrating, with gas, magnetic, electrostatic, cryogenic suspensions, laser gyroscopes). Heading systems, methods for determining aircraft location coordinates, integrated navigation systems. Radio devices: principles of information transmission in radio engineering systems; principles of transmission and reception of information using radio waves; the concept of a radio channel; composition of aircraft radio devices and their main elements; the main factors determining the composition of radio devices; radio telemetry and radio communication devices; location optical and infrared devices; radio navigation devices; on-board complexes of aircraft radio devices.

    Aircraft control systems

    Goals and objectives of aircraft flight control; classification of control systems; complexes of aircraft automatic control systems; composition and purpose of the systems of the complex. Requirements for static and dynamic characteristics of ACS technical means, their mathematical models; ACS with normal overload, pitch, roll and heading angles of the aircraft. Stability, static and dynamic errors of management processes; influence of non-linearity of static characteristics of ACS functional elements on self-oscillations; ACS of a statically unstable elastic aircraft. Control of the angular position of the space aircraft; 1-, 2-, 3-pulse maneuvers in the central gravity field, interplanetary flights, perturbation gravity maneuver. Aircraft guidance systems; guidance methods; kinematic trajectories for various guidance methods; required overloads; aircraft flight path control on the route; when landing; altitude control and stabilization. Airspeed, predetermined track, glideslope descent. Control systems for aircraft complexes.

    Theory and control systems

    Fundamentals of the theory of non-stationary control systems; mathematical models of non-stationary objects and control systems; methods of analysis and synthesis of non-stationary control systems; fundamentals of the theory of stochastic control systems; statistical characteristics of dynamic objects and control systems; mathematical models of stochastic objects and control systems; methods of analysis and synthesis of stochastic control systems; fundamentals of the theory of nonlinear control systems; methods of analysis and synthesis of nonlinear control systems; theory of optimal control; algorithms for optimal control systems; theory of adaptive control.

    Control computers and complexes

    Arithmetic foundations of computer technology, circuit synthesis; function minimization; computer structures; software, system support, features of onboard computing systems; systems with computers in the control loop. Architecture and composition of technical means of control computers; typical logical elements and nodes of control computers. Schemes of basic integral elements; multitransputer, neural-like computer networks, optical processors; modules of devices for communication with the object of control computing complexes; organization of the input-output system; organization of multi-machine and multi-processor control computing systems.

    Mathematical foundations of systems theory

    Discrete mathematics: logical calculus, graphs, theory of algorithms, languages ​​and grammars, automata, combinatorics, boolean algebras, parallel computing.

    Mathematical methods for solving optimal control problems.

    Special chapters of the theory of automatic control

    Computational algorithms of the theory of automatic control; theory of digital control systems; fundamentals of the qualitative theory of discrete dynamical systems; stability and nonlinear oscillations of digital systems.

    Disciplines of specialization

    Optional disciplines

    Military training

    Total hours of theoretical training

    5. Terms of mastering the main educational program

    in the direction of training a graduate

    “Traffic Control Systems and Navigation”

    5.1. The term for mastering the main educational training program engineer full-time education is 260 weeks, including:

    • theoretical training, including research work of students, workshops, including laboratory, - 153 weeks;
    • examination sessions - at least 20 weeks;
    • practice - 21 weeks, including:
      • training - 2 weeks;
      • production - 14 weeks;
      • undergraduate - 5 weeks;
    • final state certification, including the preparation and defense of the final qualification work - at least 16 weeks;
    • holidays, including 8 weeks of post-graduate leave - at least 38 weeks.

    5.2. For persons with a secondary (complete) general education, the terms for mastering the main educational program for training an engineer in part-time (evening) and correspondence forms of study, as well as in the case of a combination of various forms of education, are increased by the university up to one year relative to the standard period established in clause 1.3. of this state educational standard.

    5.3. The maximum volume of a student's study load is set at 54 hours per week, including all types of classroom and extracurricular (independent) study work.

    5.4. The volume of classroom studies of a student in full-time education should not exceed an average of 27 hours per week for the period of theoretical education. At the same time, the specified volume does not include mandatory practical classes in physical culture and classes in optional disciplines.

    5.5. With part-time (evening) form of education, the volume of classroom lessons should be at least 10 hours a week.

    5.6. In case of distance learning, the student must be provided with the opportunity to study with a teacher in the amount of at least 160 hours per year, if the specified form of mastering the educational program (specialty) is not prohibited by the relevant decree of the Government of the Russian Federation.

    5.7. The total amount of vacation time in the academic year should be 7-10 weeks, including at least two weeks in the winter.

    6. Requirements for the development and implementation conditions of the main

    educational program in the direction of training

    graduate

    Traffic control systems and navigation”

    6.1. Requirements for the development of the basic educational program for the training of an engineer.

    6.1.1. A higher educational institution independently develops and approves the basic educational program and curriculum of the university for the training of an engineer on the basis of this state educational standard.

    The disciplines of the student's choice are mandatory, and the optional disciplines provided for by the curriculum of the higher educational institution are not mandatory for the student to study.

    Course papers (projects) are considered as a type of academic work in the discipline and are performed within the hours allotted for its study.

    For all disciplines of the federal component and practices included in the curriculum of a higher educational institution, a final grade (excellent, good, satisfactory) should be given.

    6.1.2. When implementing the main educational program, a higher educational institution has the right to:

    • change the volume of hours allocated for the development of educational material for cycles of disciplines - within 5%, and for individual disciplines of the cycle - within 10%;
    • form a cycle of humanitarian and socio-economic disciplines, which should include the following 4 disciplines from the eleven basic disciplines given in this state educational standard: “Foreign language” (in the amount of at least 340 hours), “Physical culture” (in not less than 408 hours), “National History”, “Philosophy”. The rest of the basic disciplines can be implemented at the discretion of the university. At the same time, it is possible to combine them into interdisciplinary courses while maintaining the mandatory minimum content;
    • to carry out the teaching of humanitarian and socio-economic disciplines in the form of author's lecture courses and various types of collective and individual practical classes, assignments and seminars according to programs developed at the university itself and taking into account regional, national-ethnic, professional specifics, as well as research preferences of teachers providing qualified coverage of the subjects of the disciplines of the cycle;
    • establish the necessary depth of teaching of individual sections of the disciplines included in the cycles of humanitarian and socio-economic, mathematical and natural science disciplines, in accordance with the profile of special disciplines implemented by the university;
    • choose specializations from among those registered in the educational and methodological association, establish the names of disciplines of specializations, their volume and content, as well as the form of control over their development by students;
    • to implement the main educational program for the training of an engineer in a shortened time frame for students of a higher educational institution who have a secondary vocational education of the relevant profile or a higher professional education. The reduction of terms is made on the basis of attestation of the existing knowledge, skills and abilities of students obtained at the previous stage of vocational education. At the same time, the duration of the reduced terms of study should be at least three years with full-time education. Shortened training is allowed for persons whose level of education or abilities are sufficient grounds for this.

    6.2. Requirements for staffing the educational process.

    The implementation of the main educational program for the training of a graduate should be provided by teaching staff, who, as a rule, have a basic education corresponding to the profile of the discipline taught, and systematically engaged in scientific and / or scientific and methodological activities. Teachers of special disciplines, as a rule, must have an academic degree and / or experience in the relevant professional field.

    6.3. Requirements for educational and methodological support of the educational process.

    The implementation of the main educational program for the training of a graduate should be provided with access for each student to databases and library funds that correspond in content to the full list of disciplines of the main educational program based on the provision of textbooks and teaching aids of at least 0.5 copies. per student, the availability of teaching aids and recommendations for all disciplines and for all types of classes - workshops, course and diploma design, practices, as well as visual aids, audio, video and multimedia materials.

    The following disciplines should be provided with laboratory practicums: mathematics, physics, chemistry, informatics; materials science, strength of materials, life safety, theoretical mechanics, instrument parts, electrical engineering and electronics, instrument and automatic systems manufacturing technology, hydroaerodynamics, elements of control systems, as well as disciplines of specializations.

    Practical classes should be provided for in the study of disciplines: theoretical mechanics, engineering graphics, industrial economics, management and marketing, organization and production planning; control, accounting and technical and economic analysis in the industry.

    Seminars should be provided for humanitarian and socio-economic disciplines.

    The library fund should contain the following journals:

      • “Theory of systems and control”. News of the Russian Academy of Sciences;
      • "Automation and telemechanics". News of the Russian Academy of Sciences;
      • “Bulletin of MSTU”;
      • “Vestnik MAI”;
      • "Instrument making". Izvestiya Universities
    ;
  • "Electricity";
  • IEEE Trans. "Aerospace and Electronic System";
  • "Navigation".
  • 6.4. Requirements for the material and technical support of the educational process.

    A higher educational institution that implements the main educational program for the training of a graduate must have a material and technical base that ensures the conduct of all types of laboratory, practical classes, research work of students, provided for by an exemplary curriculum and corresponding to the current sanitary and technical standards and fire regulations.

    Laboratories of a higher educational institution should be equipped with modern stands, equipment and fixtures that ensure the practical development of the disciplines studied in accordance with the specialty (specialization) implemented by universities, or, in the prescribed manner, use the laboratory facilities of specialized enterprises.

    The university should have centers, classes and laboratories equipped with modern computer technology.

    6.5. Requirements for the organization of practice.

    Practices are held in third-party organizations (enterprises, research institutes, firms) or in departments and scientific laboratories of the university.

    6.5.1. Educational practice.

    During the educational practice, a student studying in the specialty

    “Instruments and Systems for Orientation, Stabilization and Navigation”, studies the basic methods of processing materials, a manual for the installation and adjustment of electrical and electronic circuits, gains initial skills in assembling components and mechanisms of devices, using tools, templates, devices for technical control of samples of components and precision instruments mechanics.

    During the practical training, a student studying in the specialties “Control, flight-navigation and electric power complexes of aircraft” and “Aircraft control systems” gets acquainted and studies the basics of mathematical modeling of typical control objects, composes and debugs simulation programs, analyzes their results.

    6.5.2. Internship.

    During an internship, a student studying in the specialty “Instruments and Systems for Orientation, Stabilization and Navigation” must

    read and study:

    • the enterprise and the range of products (instruments), main and auxiliary production processes, workshops, production (mechanical, assembly, special), metrological, technological and other services and divisions;
    • automated enterprise management systems, technological processes, quality management system;
    • technology for the production of special parts and assembly units, technological, regulatory and guidance documentation;
    • organization and management of technological preparation of production, the structure of technological services, the organizational structure of enterprise management;
    • design of technological processes and means of technological equipment, manufacturing of parts and assembly units, management of technological processes, control of the accuracy of processes and products (parts, assembly units and devices);
    • technological means of automation and mechanization of engineering and technical works;

    execute:

    • development of the technological process for the manufacture of parts, assembly unit, device;
    • registration of technological documentation, using the basic principles of the development of technological equipment.

    During the production practice, a student studying in the specialties “Controlling, flight-navigation and electric power complexes of aircraft” and “Aircraft control systems” must

    read and study:

    • real technological processes of manufacturing systems and complexes, features of their designs;
    • operating conditions of the instrument complex and control systems (produced according to specializations);
    • experience in the development of new models of devices, systems and complexes of the relevant direction;
    • methods of adjustment, debugging, testing of devices, systems and complexes of traffic control and navigation and electric power complexes of mobile objects;
    • system analysis of the results of modeling testing of devices, systems and complexes of the corresponding profile;
    • technology for the production of devices, systems and complexes of the corresponding profile in terms of their quality management;

    execute:

    • calculation of the technological process of manufacturing and assembling parts and assemblies of automatic control systems and control complexes;
    • design of aircraft instruments.

    6.5.3. Undergraduate practice.

    During undergraduate practice, the student must:

    familiarize:

    • with the production structure of the enterprise (research and production complex) and its production program;
    • with industrial relations within the enterprise;
    • with the organization of research and design work at the enterprise;
    • with modern instruments, systems and complexes of control and navigation, as well as with electric power complexes of mobile objects;
    • with the conduct of flight design and state testing of instruments, systems and complexes for traffic control and navigation and electric power complexes of aircraft and other moving objects;

    produce:

    • analysis of the characteristics of the mobile device as a control object;
    • design of functioning algorithms and calculations of the main parameters of devices, systems and complexes of the corresponding profile;
    • technical and economic analysis of designs and schemes of devices, systems and complexes of the corresponding profile.

    6.5.4. Certification based on the results of the practice is carried out on the basis of a written report drawn up in accordance with the established requirements and the recall of the head of the practice from the enterprise. Based on the results of the practice, a grade is given (excellent, good, satisfactory).

  • Requirements for the level of preparation of the graduate in the direction
  • graduate training

    “Traffic Control Systems and Navigation”

    7.1. Graduate qualification requirements.

    The graduate must be able to solve problems corresponding to his qualifications specified in clause 1.3. of this state educational standard.

    Engineer in the direction of "Traffic control systems and navigation" must

    • characteristics of aircraft and other mobile vehicles for various purposes as objects of orientation, stabilization, control and navigation and electric power complexes;
    • mathematical models of the movement of a moving object and complexes of interacting moving objects;
    • methods of mathematical and semi-natural modeling of dynamic systems “moving object - a complex of orientation, control, navigation and electric power systems”;
    • methods and principles for the development of prototypes of devices, systems and complexes of the corresponding direction, technological processes for the manufacture of their parts and assemblies, assembly, test control and operation;

    be able to apply:

    • a systematic approach and modern achievements of science and technology in the development of solutions, construction of structures and schemes of devices, systems and complexes of control and navigation, as well as electric power complexes of moving objects;
    • computer technologies in the development of new models of devices, systems and complexes of the corresponding direction, as well as in the process of their manufacture and control;
    • methods of testing and control of devices, systems and complexes of the corresponding profile;
    • methods for converting and processing output information (signals and images) of devices, systems and complexes of the corresponding profile;
    • methods of automation of quality management and stability of the production of devices, systems and complexes of the corresponding profile;
    • methods for analyzing the cost of development and research work to create new models of equipment.

    7.2. Requirements for the final state certification of the graduate.

    7.2.1. The final state attestation of an engineer includes a final qualifying work (thesis project or a thesis) and a state exam, allowing to identify theoretical and practical preparation for solving professional problems.

    7.2.2. Requirements for the final qualifying work of the graduate.

    The final qualification work of an engineer is a completed development, in which the actual task of designing a new model of a device, system or complex for motion control and navigation or an electric power complex, calculating the rational parameters of its structure and choosing the optimal technological process that ensures the release of products of the appropriate quality, with study social and legal issues, with economic and environmental justification.

    In the work, the graduate must show the ability to use the methods of designing devices, systems and complexes of the corresponding direction, modern computer-aided design systems, apply new calculation methods, plan experimental studies, select technical means and research methods, use computer methods for collecting, storing and processing information used in field of professional activity.

    The time allotted for the preparation of the qualification work is at least 16 weeks.

    7.2.3. Requirements for the state exam.

    The exam is held in special disciplines in order to determine the compliance of knowledge, skills and abilities of students in a complex of special disciplines with the requirements of the educational standard.

    The list of disciplines submitted for examination in special disciplines is determined by the university, taking into account the specifics of the educational program being implemented.

    The procedure for conducting and the program of the state exam in the specialties related to the direction of training of graduates "Traffic control systems and navigation" are determined by the university on the basis of methodological recommendations and relevant exemplary programs developed by the UMO of universities for education in the field of mechanical engineering and instrumentation, UMO of universities for education in in the field of aviation, rocket science and space, the Regulations on the final state certification of graduates of higher educational institutions, approved by the Ministry of Education of Russia, and this state educational standard.

    COMPILERS:

    on education in the field of mechanical engineering

    and instrumentation.

    Chairman of the UMO Council _______________________ I.B. Fedorov

    Deputy Chairman of the Council of UMO ____________ S.V. Korshunov

    Educational and methodological association of universities

    aviation education,

    rocket science and space.

    Chairman of the UMO Council ______________ A.M. Matveenko

    Deputy Chairman of the UMO Council ____________ Yu.A. Sidorov

    AGREED:

    Office of Educational Programs

    and standards of higher and secondary

    vocational education

    G.K. Shestakov

    Head of technical department

    education _____________ E.P. Popova

    Chief Specialist __________ S.L. Cherkovsky

    Description

    Mastering disciplines in this profile will allow students to:

    • analyze mobile devices using existing methods as objects of stabilization, power industry, control and orientation;
    • simulate processes and individual devices using standard application software packages;
    • master and refine technological processes in the process of preparing for the production launch of new products;
    • mount devices and electric power, flight, navigation units on the equipment;
    • test and commission complexes and systems;
    • conduct experiments and preliminary analysis of the results;
    • regulate, adjust and test equipment in industrial plants and test sites;
    • carry out observations and measurements, as well as write descriptions of studies;
    • monitor compliance with environmental safety standards.

    Whom to work

    An engineer's education allows you to work with various navigational and aircraft devices. Graduates will be able to independently develop designs, taking into account technological features and requirements. Many aspire to get into the position of assistant design engineer. The practical application of the skills acquired at the university will make it possible to actively test new instruments and orientation systems. Knowledge in the field of mathematics and mechanics will help in the creation of fundamentally new devices and the modernization of the equipment used. As a rule, bachelors are easily accepted into various research institutes and design bureaus.

    The most common entrance exams are:

    • Russian language
    • Mathematics (profile) - profile subject, at the choice of the university
    • Informatics and information and communication technologies (ICT) - at the choice of the university
    • Foreign language - at the choice of the university
    • Chemistry - at the choice of the university
    • Physics - at the choice of the university

    No vehicle can exist without a clear control system. Improving the efficiency and functionality of technology by improving navigation is a priority for specialists in the field. The life support of the industry is based on new projects, developments and discoveries designed to modernize the traffic control systems of various vehicles. And the creation of new projects is impossible without the skills of qualified professionals. It is precisely such personnel that the specialty 24.03.02 "Traffic control systems and navigation" trains.

    Admission conditions

    Different universities present different lists of exams required for admission. Therefore, if you decide to master this profession, you should initially study the list of educational institutions and find out what subjects you will need to take in order to enter the desired direction.

    As a rule, most educational institutions request points for:

    • mathematics (profile);
    • Russian language;
    • physics or informatics and ICT;

    However, a number of universities present other lists of exams in disciplines, among which may be chemistry and a foreign language. We recommend that you obtain all the necessary information in advance on the websites of educational institutions.

    Future profession

    In the process of learning, students master the principles of functioning of aviation and rocket technology, as well as the features of navigation of air, underwater and surface transport. A separate block of the program is the study of the basics of controlling unmanned aerial vehicles. In addition, students learn the rules of operation of on-board computers and master their operation.

    Where to apply

    The described specialty is quite rare, so there are only 7 universities in the country that are ready to provide their audiences for mastering the profession. As a rule, the universities of Moscow are the most prestigious educational institutions, but in the capital there is only one institution that trains specialists in the region. So, you can get a diploma in a given direction in such universities as:

    • Moscow Aviation Institute (National Research University) (MAI);
    • St. Petersburg National Research University of Information Technologies, Mechanics and Optics;
    • St. Petersburg State University of Aerospace Instrumentation;
    • Tula State University;
    • Siberian State Aerospace University Academician M. F. Reshetnev;
    • Kazan National Research Technical University A. N. Tupolev-KAI;
    • Perm National Research Polytechnic University.

    Training period

    The duration of the educational program for a bachelor's degree is 4 years for full-time department and 5 years for part-time.

    Disciplines included in the course of study

    The program provides for the study of such important subjects as:

    • engineering and computer graphics;
    • microprocessor technology in devices, systems and complexes;
    • basics of computer-aided design;
    • fundamentals of instrument design;
    • basics of modeling and testing of devices and systems;
    • fundamentals of applied hydro- and aerodynamics;
    • fundamentals of the theory of flight and navigation systems;
    • theoretical foundations of electrical engineering and electrical measurements;
    • technical means of navigation and traffic control;
    • instrumentation technology.

    Acquired Skills

    As a result of mastering the profession, graduates are endowed with the following skills and abilities:

    • Carrying out research work and their analysis.
    • Implementation of new developments in production processes.

    Employment prospects by profession

    Where to work after graduation? Graduates can carry out their activities in the following professions:

    • navigation engineer;
    • test engineer;
    • air traffic control engineer;
    • design engineer;
    • operation specialist;
    • navigation equipment specialist.

    Often, profile specialists occupy positions in research laboratories and design bureaus. Novice experts are often employed as testers and assistants to designers and engineers.

    The minimum wage in this area is 25,000 - 30,000 rubles. More experienced staff can count on salaries of 50,000 rubles or more.

    Benefits of applying to a master's program

    After graduating from a bachelor's degree, some students decide to continue their educational activities in a master's program, which gives them a number of advantages:

    1. Opportunity to occupy a more prestigious position.
    2. The right to teach in universities.
    3. Greater competitiveness in the labor market.
    4. A chance to deepen your professional knowledge and hone your skills.
    5. The prospect of rapid career growth.