Menu
For free
Registration
home  /  Business/ Profession physicist: who to work with and where to apply. How much does a radiophysicist earn in different countries? What is a radiophysics specialty?

Profession physicist: who to work with and where to apply. How much does a radiophysicist earn in different countries? What is a radiophysics specialty?

About the direction:

Radiophysics is a branch of physics that, in a broad sense, deals with the study of vibrational-wave processes of various natures, and in a narrow sense, the study of electromagnetic waves in the radio range.

Historically, the main subject of radiophysics research has been radio waves, namely their emission and reception, propagation in various media, interaction with objects, and absorption. However, subsequently the methods of radiophysics were transferred to other branches of physics: optics, acoustics, microwave electronics, semiconductor electronics. A general theory of wave propagation was created, and methods were developed for solving wave equations for nonlinear and nonequilibrium media with spatial and temporal dispersions.

Radiophysics was formed in the 30-40s of the last century thanks to the rapid development of radio engineering, radio communications, radio and television broadcasting, etc. The emergence of radar and radio navigation required the development of new frequency ranges and the development of general physical sciences. principles of generation, radiation, propagation and reception of radio waves, modulation and coding of radio signals, etc.

As radiophysics developed, its methods began to penetrate other areas of physics. As a result, Radiophysics, as it were, “branched” into “physics for radio” and “radio for physics.” New tasks, as well as the development of high frequency ranges, attracted ideas and methods from other areas of physics in Radiophysics, in particular from optics (lenses, mirrors, interferometers, polaroids, etc.), which led to the emergence of a new section of Radiophysics - quasi-optics ( quasi-optical transmission lines, open resonators, etc.). In turn, radiophysics. methods developed, for example, for the centimeter wavelength range, having penetrated into optics, significantly expanded its capabilities, giving rise to such areas as fiber optics, holography, integrated optics, etc., so that optical. The frequency range has become the area of ​​application of Radiophysics methods. Sometimes this is explained by the term “radio optics”.

Thus, radiophysics has a complex and highly branched structure and a clearly expressed tendency to further penetrate into other areas of natural science (geophysics and hydrophysics, acoustics, biophysics, etc.), and into other areas of frequencies, powers, and other parameters. , expanding traditions. spheres of influence of Radiophysics (relativistic high-power electronics, microminiaturization of radio equipment, X-ray optics).

Graduates can continue their studies at the master's level, work in academic and industry research institutes, teach in higher and secondary specialized educational institutions, work in enterprises and companies in the telecommunications, petrochemical, energy, engineering sectors, banks, government agencies, etc.

Previously, this state standard had the number 013800 (according to the Classifier of directions and specialties of higher professional education)

MINISTRY OF EDUCATION OF THE RUSSIAN FEDERATION

I APPROVED

Deputy Minister
education of the Russian
Federation

___________________V.D.Shadrikov

“__17__”___03___________2000

State registration number

170 en/sp ____________

STATE EDUCATIONAL
STANDARD
HIGHER PROFESSIONAL EDUCATION

Speciality

013800 RADIOPHYSICS AND ELECTRONICS

Qualification - radiophysicist

Introduced from the moment of approval

2000

1. GENERAL CHARACTERISTICS OF THE SPECIALTY

1.1The specialty was approved by order of the Ministry of Education of the Russian Federation dated

02. 03. 2000 № 686.

1.2 Graduate qualifications - radiophysicist.

Standard period for mastering the main educational training program radiophysics in the specialty with full-time study - 5 years.

1.3 Qualification characteristics of the graduate radiophysics

.

The specialist’s activities are aimed at researching and studying the structure and properties of nature at various levels of its organization from elementary particles to the Universe, fields and phenomena underlying physics, and at mastering new methods for studying the basic laws of nature.

The specialist is prepared for activities that require in-depth fundamental and professional training, including research work, and, subject to the development of an additional educational program of a pedagogical profile, for teaching activities.

Types of professional activities of a specialist:

  • scientific research: experimental, theoretical and computational;
  • pedagogical.

The specialist is prepared to solve the following tasks:

a) research (experimental, theoretical and computational activities):

  • scientific research into the problems posed;
  • formulation of new problems arising in the course of scientific research;
  • development of new research methods;
  • selection of necessary research methods;
  • mastering new methods of scientific research;
  • mastering new theories and models;
  • processing of scientific research results at the modern level and their analysis;
  • working with scientific literature using new information technologies, monitoring scientific periodicals;
  • writing and designing scientific articles;
  • compilation of reports and reports on research work, participation in scientific conferences.

b) teaching activities:

  • preparing and delivering lecture courses;
  • preparing and conducting seminars;
  • conducting classes in educational laboratories;
  • supervision of students' scientific work;
  • supervision of students' theses.

The areas of professional activity are higher educational institutions, research institutes, laboratories, design and design bureaus and firms, manufacturing enterprises and associations, institutions of higher and secondary specialized education.

Specialist can work in positions provided for by the legislation of the Russian Federation for persons with higher professional education (senior laboratory assistant, junior researcher, engineer at a research institute).

In accordance with the additional qualification “Teacher” received during training, he can be a teacher in a secondary school and secondary vocational institution, in accordance with the additional qualification “Higher school teacher” can also be a university teacher.

1.4 Opportunities for continuing graduate education

Radiophysicist who has completed the basic educational program of higher professional education in his specialty 013800 Radiophysics and electronics, prepared for continuing education in graduate school, mainly in scientific specialties in the following scientific fields: physical and mathematical sciences, biological sciences, geological and mineralogical sciences and other scientific specialties similar in profile.

2. REQUIREMENTS FOR THE LEVEL OF PREPARATION OF THE APPLICANT

  • The applicant's previous level of education is secondary (complete) general education.
  • The applicant must have a state-issued document on secondary (complete) general education or 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 basic educational program for graduate training in specialty 013800 Radiophysics and Electronics

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

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

    3.3 Basic educational training program radiophysics consists of disciplines the federal component, disciplines of the national-regional (university) component, disciplines of the student’s choice, as well as elective disciplines. Disciplines and courses of the student's choice in each cycle must meaningfully complement the disciplines specified in the federal component of the cycle.

    3.4 Basic educational training program radiophysics should provide for the student to study the following cycles of disciplines and final state certification:

    GSE cycle - general humanitarian and socio-economic disciplines;
    cycle EN - general mathematical and natural science disciplines;
    OPD cycle - general professional disciplines;
    DS cycle - specialization disciplines;
    FTD cycle - electives.

    4. REQUIREMENTS FOR THE CONTENT OF THE BASIC EDUCATIONAL PROGRAM FOR TRAINING A SPECIALIST IN THE SPECIALTIES

    013800 RADIOPHYSICS AND ELECTRONICS

    Name of disciplines and their main sections

    Total hours

    General humanitarian and socio-economic disciplines

    Federal component:

    Foreign language.

    Specifics of articulation of sounds, intonation, accentuation and rhythm of neutral speech in the target language; the main features of the complete pronunciation style, characteristic of the field of professional communication; reading the transcription. 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 other). The concept of free and stable phrases, phraseological units. The concept of the main methods of word formation. Grammatical skills that ensure communication without distortion of meaning in written and oral communication of a general nature; basic grammatical phenomena characteristic of professional speech. The concept of everyday literary, official business, scientific styles, and the style of fiction. Main features of the scientific style. Culture and traditions of the countries of the language being studied, rules of speech etiquette. Speaking. Dialogue and monologue speech using the most common and relatively simple lexical and grammatical means in basic 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 broad and narrow specialty profiles. Letter. Types of speech works: abstract, abstract, theses, messages, private letter, business letter, biography.

    Physical Culture

    .

    Physical culture in 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 the individual. Basics of a healthy lifestyle for a student. Features of using physical education means to optimize performance. General physical and special training in the physical education system. Sports, individual choice of sports or physical exercise systems. Professional applied physical training of students. Fundamentals of self-study methods and self-monitoring of one’s condition

    body.

    National history.

    Culturology.

    Structure and composition of modern cultural knowledge. Culturology and philosophy of culture, sociology of culture, cultural anthropology. Culturology and cultural history. Theoretical and applied cultural studies. Methods of cultural studies. 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. Trends in cultural universalization in the global 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, sociocultural foundations, historical dynamics. Modern political science 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 for understanding political reality. Paradigms of political knowledge. Expert political knowledge;

    political analytics and forecasting.

    Jurisprudence.

    State and law. Their role in the life of society. Rule of law and normative legal acts. Basic legal systems of our time. International law as a special system of law. Sources of Russian law. Law and regulations. System of Russian law. Branches of law. Offense and legal liability. The importance 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 government bodies in the Russian Federation. The concept of civil legal relations. Individuals and legal entities. Ownership. Obligations in civil law and liability for their violation. Inheritance law. Marriage and family relations. Mutual rights and obligations of spouses, parents and children. Responsibility under family law. Employment agreement (contract). Labor discipline and responsibility for its violation. Administrative offenses and administrative liability. Concept of crime. Criminal liability for committing crimes. Environmental law. Features of legal regulation of future professional activities. Legal basis for the protection of state secrets. Legislative and regulatory 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. History of the development of psychological knowledge and main directions in psychology. Individual, personality, subject, individuality. Psyche and body. Psyche, behavior and activity. Basic Functions of the Psyche. Development of the psyche in the process of ontogenesis and phylogenesis. Brain and psyche. Structure of the psyche. The relationship between consciousness and the unconscious. Basic mental processes. 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. Main categories of pedagogy: education, upbringing, training, pedagogical activity, pedagogical interaction, pedagogical technology, pedagogical task. Education as a universal human value. Education as a sociocultural

    phenomenon and pedagogical process. Educational system of Russia. Goals, content, structure of lifelong education, unity of education and self-education. Pedagogical process. Educational, educational and developmental functions of training. Education in the pedagogical process. General forms of organization of educational activities. Lesson, lecture, seminar, practical and laboratory classes, debate, conference, test, exam, elective classes, consultation. Methods, techniques, means of organizing and managing the pedagogical process. The family as a subject of pedagogical interaction and the sociocultural environment of education and personality development. Management of educational systems.

    Russian language and culture of speech.

    Styles of modern Russian literary language. Language norm, its role in the formation and functioning of a literary language. Speech interaction. Basic units of communication. Oral and written varieties of literary language. Regulatory, communicative, ethical aspects of oral and written speech. Functional styles of modern Russian language. Interaction of functional styles. Scientific style. Specifics of using elements of different language levels in scientific speech. Speech norms for educational and scientific fields of activity.

    Official business style, the scope of its functioning, genre diversity. Language formulas of official documents. Techniques for unifying the language of official documents. International properties of Russian official business writing. Language and style of administrative documents. Language and style of commercial correspondence. Language and style of instructional and methodological documents. Advertising in business speech. Rules for document preparation. Speech etiquette in a document. Genre differentiation and selection of linguistic means in journalistic style. Features of oral public speech. The speaker and his audience. Main types of arguments. Preparation of a speech: choosing a topic, purpose of speech, searching for material, beginning, development and completion of speech. Basic methods of searching for material and types of auxiliary materials. Verbal presentation of a public speech. 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 spoken language, the role of extralinguistic factors. A culture of speech. The main directions for improving competent writing and speaking skills.

    Sociology.

    Background and socio-philosophical premises of sociology as a science. Sociological project of O. Comte. Classic sociological theories. Modern sociological theories. Russian sociological thought. Society and social institutions, the world system and globalization processes. Social groups and communities. Types of communities. Community and personality. Small groups and

    teams. Social organization. Social movements. Social inequality, stratification and social mobility. The concept of social status. Social interaction and social relationships. Public opinion as an institution of civil society. Culture as a factor of social change. Interaction of economics, social relations and culture. Personality as a social type. Social control and deviation. Personality as an active subject. Social changes. Social revolutions and reforms. Social progress concept. Formation of the world system. Russia's place in the world community. Methods of sociological research.

    Philosophy.

    Subject of philosophy. The 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. Concepts of material and ideal. Space, time. Movement and development, dialectics. Determinism and indeterminism. Dynamic and statistical patterns. Scientific, philosophical and religious pictures of the world. Man, society, culture. Human and nature. Society and its structure. Civil society and the state. A person in a system of social connections. 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 cognition. Consciousness, self-awareness and personality. Cognition, 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 extra-scientific knowledge. Scientific criteria. The structure of scientific knowledge, its methods and forms. The growth of scientific knowledge. Scientific revolutions and changes in types of rationality. Science and technology. The future of humanity. Global problems of our time. 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. Income effect and substitution effect. Elasticity. Supply and its factors. Law of Diminishing Marginal Productivity. Effect of scale. Types of costs. Firm. Revenue and profit. The principle of profit maximization. Proposal from 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. Labor supply and demand. Wages and employment. Capital market. Interest rate and investment. Land market. Rent. General balance and well-being. Income distribution. Inequality. Externalities and public goods

    .The role of the state. Macroeconomics. National economy as a whole. Circulation of income and products. GDP and ways 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 its 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 transition economy of Russia. Privatization. Forms of ownership. Entrepreneurship. Shadow economy. Labor market. Distribution and income. Transformations in the social sphere. Structural changes in the economy. Formation open economy.

    General mathematics and natural sciences

    Federal component

    General physics.

    Mechanics.

    Space and time. Kinematics of a material point. Galileo's transformations. Dynamics of a material point. Conservation laws. Fundamentals of the special theory of relativity. Non-inertial reference systems. Kinematics of an absolutely rigid body. Dynamics of an absolutely rigid body. Oscillatory movement. Deformations and stresses in solids. Mechanics of liquids and gases. Waves in a continuous medium and elements of acoustics.

    Molecular physics.

    Ideal gas. The concept of temperature. Velocity distribution of gas molecules. Ideal gas in an external potential field. Brownian motion. Thermodynamic approach to the description of molecular phenomena. The first law of thermodynamics. Cyclic processes. Second law of thermodynamics. The concept of entropy

    thermodynamic system. Real gases and liquids. Surface phenomena in liquids. Solids. Phase transitions of the first and second order. Transference phenomena.

    Electricity and magnetism.

    Electrostatics. Conductors in an electrostatic field. Dielectrics in an electrostatic field. Constant electric current. Mechanisms of electrical conductivity. Contact phenomena. Magnetics. Explanation of diamagnetism. Explanation of paramagnetism according to Langevin. Ferromagnets and their basic properties. Electromagnetic induction. Magnetic field energy. Electromagnetic vibrations. Alternating current. Technical applications of alternating current. Maxwell's equations in integral and differential form. Emission of electromagnetic waves.

    Fundamentals of the electromagnetic theory of light. Modulated waves. The phenomenon of interference. Wave coherence. Multipath interference. The phenomenon of diffraction. The concept of Kirchhoff's diffraction theory. Diffraction and spectral analysis. Diffraction of wave beams. Diffraction by multidimensional structures. Polarization of light. Reflection and refraction of light at the interface of isotropic dielectrics. Light waves in anisotropic media. Interference of polarized waves. Induced anisotropy of optical properties. Dispersion of light. Fundamentals of metal optics. Scattering of light in fine and turbid media. Nonlinear optical phenomena. Classical models of radiation from rarefied media. Thermal radiation of condensed matter. Basic ideas about the quantum theory of light emission by atoms and molecules. Light amplification and generation.

    Physics of atoms and atomic phenomena.

    Microworld. Waves and quanta. Particles and waves. Basic experimental data on the structure of the atom. Fundamentals of quantum mechanical concepts of the structure of the atom. One-electron atom. Multielectron atoms. Electromagnetic transitions in atoms. X-ray spectra. An atom in a field of external forces. Molecule. Macroscopic quantum phenomena. Fermi-Dirac and Bose-Einstein statistical distributions. Fermi energy. Superconductivity and superfluidity and their quantum nature.

    Physics of the atomic nucleus and particles.

    Properties of atomic nuclei. Radioactivity. Nucleon-nucleon interaction and properties of nuclear forces. Models of atomic nuclei. Nuclear reactions. Interaction of nuclear radiation with matter. Particles and interactions. Experiments in high energy physics. Electromagnetic interactions. Strong interactions. Weak interactions. Discrete symmetries. Combining interactions. Modern astrophysical concepts.

    General physics workshop.

    Mathematics.

    Mathematical analysis.

    Subject of mathematics. Physical phenomena as a source of mathematical concepts. Limits and continuity of a function. Derivative of a function. Basic theorems on continuous and differentiable functions. Studying the behavior of functions and constructing their graphs. Indefinite and definite integrals. Functions of several variables. Geometric applications of differential calculus. Multiple integrals. Curvilinear and surface integrals. Rows. Improper integrals, integrals depending on a parameter. Fourier series and integral. Elements of the theory of generalized functions.

    Analytic geometry.

    Determinants of the second and third order. Vectors and coordinates on the plane and in space. Straight lines on a plane and in space. Curves and surfaces of the second order.

    Linear algebra.

    Matrices and determinants. Linear spaces. Systems of linear equations. Euclidean and unitary spaces. Linear operators in finite-dimensional space. Bilinear and quadratic forms.

    Vector and tensor analysis.

    Tensors and operations on them. Scalar and vector fields. Basic operations of vector analysis. Formulas of Green, Gauss-Ostrogradsky, Stokes. Elements of group theory.

    Theory of functions of a complex variable.

    Complex numbers. Analytical functions and their properties. Integral over a complex variable. Cauchy integral. Series of analytical functions. Basic concepts of the theory of conformal mappings. Laplace transform.

    Differential and integral equations.

    The concept of an ordinary differential equation. First order equations. Higher order equations. Systems of ordinary differential equations. Theory of stability. Boundary value problems for linear second order equations. Numerical methods for solving differential equations. First order partial differential equations. Integral equations. Linear operators in Hilbert space. Homogeneous and inhomogeneous Fredholm equation of the second kind. Sturm-Liouville problem. Volterra equation. The concept of correctly and incorrectly posed problems. Fredholm equation of the first kind. Calculus of variations.

    Theory of Probability and Mathematical Statistics.

    Basic concepts of probability theory. Axiomatic definition of probability. Conditional probability and independence. Sequence of independent tests. Random variables and their characteristics. Laws of large numbers. Characteristic function. Central limit theorems. Finite homogeneous Markov chains. Random processes. Gaussian, Pearson, Fisher, Student distributions. Interval and point estimates. The task of testing statistical hypotheses. Sufficient statistics. Maximum likelihood method. Regression analysis. Statistical analysis of the model and statistical solution problems.

    Computer science.

    Programming.

    The influence of new physical ideas on the development of computer technology. Computer experiment in physics.

    1. Operating systems and operating shells. Typical operating systems. Files and file system. Operating shells. User interface, basic commands. System utilities. Local and global networks. Network architecture. Internet. Email and electronic conferences. World Wide Web.

    2. Programming (N, C++/Pascal language): Characteristics of the language. Program structure. Principles of structured programming. Algorithms. Data types. Variables and constants. Description of variables. Arrays. Basic arithmetic operations. Cycles. Conditional statements. Standard I/O functions. Passing parameters when calling functions. Global and local variables. Lines. Pointers. Structures. Working with files. Interactive graphics. Computer animation. Modern programming methods. The concept of object programming.

    3. Computer in the laboratory: Text editors. Elements of publishing systems. Preparing a scientific article for publication. Data processing. Spreadsheets. Database management systems (DBMS). DBMS programming languages. Analytical calculations on a computer. Automation of a physical experiment.

    Microprocessor systems.

    1. Microprocessors (MP), microcomputers, microcontrollers and microprocessor systems (MPS).

    2.Systems for collecting and processing information.Subsystem for analog-to-digital and digital-to-analog information conversion. Subsystem for machine processing and storage of information. Backbone-modular principle of organizing the MPS. MPS modules. Microprocessor kits. Submission of information to the Ministry of Railways.

    3. MP architecture and hardware.Classification and principles of organization of processors. Parallel and pipeline architectures. Microprogram control. Command system and formats. Addressing modes.

    4.Interfaces of data processing systems. International standardization. Reference model. Computer system interfaces. Instrument interfaces. Interfaces of backbone-modular multiprocessor systems, local networks and distributed control systems. Client-server, adapter, hub, gateway.

    5. MP information and software. General system and application software (software). Real-time complexes. Operating systems - platforms (OS). Integrated programming systems.

    Numerical methods and mathematical modeling.

    Approximate numbers, errors. Calculation of values ​​of the simplest functions. Interpolation and approximation of functions. Interpolation polynomials. Best approximation. Mean square approximation. Uniform approach. Orthogonal polynomials. Spline interpolation. Fast Fourier transform. Finding roots of nonlinear equations. Iterative methods. Newton's method. Root separation. Complex roots. Solving systems of equations. Computational methods of linear algebra. Direct and iterative processes. Eigenvalue problems. Numerical differentiation. Numerical integration. Numerical integration of rapidly oscillating functions. Multidimensional integrals. Monte Carlo methods. Cauchy problem for ordinary differential equations. Integration of second and higher order equations. Numerical methods for solving boundary value problems and eigenvalue problems for ordinary differential equations. Computational methods for solving boundary value problems of mathematical physics. Difference schemes. Approximation. Sustainability. Convergence. Variational-difference methods, finite element method. Numerical methods for solving integral equations. Search for extremum, one-dimensional and multidimensional optimization. Methods of mathematical programming. Calculation of pseudoinverse matrices and pseudosolutions. Singular decomposition. Processing of experimental data.

    Basic concepts and laws of chemistry. State of electrons in an isolated atom. Periodic table of elements D.I. Mendeleev. Structure of solids. Chemical bonds in solids. Defects in crystals. Solutions. Chemical balance. Kinetics of chemical reactions. Phase equilibria. Surface phenomena. Electrochemistry.

    Ecology.

    Biosphere and man: structure of the biosphere, ecosystems, relationships between the organism and the environment, ecology and human health. Global environmental problems, ecological principles of rational use of natural resources and nature conservation. Fundamentals of environmental economics. Eco-protective equipment and technologies. Fundamentals of environmental law, professional responsibility. International cooperation in the field of environment.

    National-regional (university) component

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

    General professional disciplines

    Federal component

    Theoretical physics.

    Mechanics.

    Particle and material point; theory of relativity of Galileo and Einstein; nonrelativistic and relativistic equations of particle motion; interactions of particles, fields; conservation laws; general properties of one-dimensional motion; fluctuations; movement in the central field; system of many interacting particles; particle scattering; mechanics of particles with constraints, Lagrange equations; principle of least action; motion of a rigid body; motion relative to non-inertial reference systems; vibrations of systems with many degrees of freedom; nonlinear oscillations; canonical formalism, Hamilton's equations, canonical transformations, Liouville's theorem; Hamilton-Jacobi method, adiabatic invariants.

    Fundamentals of continuum mechanics.

    A system of many particles as a continuum; scalar, vector and tensor fields; transfer phenomena; continuum conservation equations, equation of state, closed system of hydrodynamic equations; flows in an ideal fluid; viscosity, turbulence, law of similarity; sound waves;

    shock waves; supersonic flows.

    Electrodynamics.

    Maxwell's microscopic equations; conservation of charge, energy, momentum, angular momentum; electromagnetic field potentials; gauge invariance; multipole expansions of potentials; solving equations for potentials (retarded potentials); electromagnetic waves in vacuum; radiation and scattering, radiation friction.

    The principle of relativity; relativistic kinematics and dynamics, four-dimensional formalism; Lorentz transformations; electromagnetic field tensor; electromagnetic field energy-momentum tensor; covariant recording of equations and conservation laws for the electromagnetic field and for particles; transformation laws for field strengths, for frequency and wave vector of an electromagnetic wave.

    Electrodynamics of continuous media.

    Averaging of Maxwell's equations in a medium, polarization and magnetization of the medium, vectors of induction and field strengths; border conditions; electrostatics of conductors and dielectrics; ponderomotive forces; constant magnetic field; ferromagnetism; superconductivity; quasi-stationary electromagnetic field, skin effect; magnetic hydrodynamics; electromagnetic wave equations; dielectric constant dispersion, absorption, Kramers-Kronig formulas; phase and group velocities in a dispersive medium; reflection and refraction; propagation in a heterogeneous environment; electromagnetic waves in anisotropic media; electromagnetic fluctuations (fluctuation-dissipation theorem); elements of nonlinear electrodynamics.

    Quantum theory.

    Dualism of microworld phenomena, discrete properties of waves, wave properties of particles; uncertainty principle; principle of superposition; observables and states; pure and mixed states; evolution of states and physical quantities; relationships between classical and quantum mechanics; theory of representations; general properties of one-dimensional motion; harmonic oscillator; tunnel effect; semi-classical movement; perturbation theory; moment theory; movement in a centrally symmetric field; spin; principle of identity of identical particles; relativistic quantum mechanics; atom; Mendeleev's periodic table of elements; chemical bond, molecules; electromagnetic field quantization; general theory of transitions; secondary quantization, systems with an indefinite number of particles; scattering theory.

    Solid State Physics and Solid State Electronics.

    Fundamentals of band theory of solids, Schrödinger equations for crystals, Born-Oppenheimer and Hartree-Fock approximations, Kronig-Penney method. Brillouin zones, method of effective masses of charge carriers. Boltzmann's kinetic equation and its application to the consideration of kinetic phenomena in solids. Magnetic, plasma, optical and photoelectric phenomena in solids.

    Contact phenomena at the metal-semiconductor interface, diodes with a Schottky barrier. Semiconductor diodes and their functionality. Diodes for amplification and generation of microwave signals, photodiodes, LEDs, semiconductor quantum generators. Bipolar and field-effect transistors, dinistors and thyristors, switches and memory elements based on MDM and MIS structures, charge-coupled devices. Integrated circuits.

    Thermodynamics.

    Basic laws and methods of thermodynamics, principles of thermodynamics, thermodynamic potentials, equations and inequalities; conditions of stability and equilibrium, phase transitions; fundamentals of thermodynamics of irreversible processes, Onsager's relations, Le Chatelier's principle.

    Statistical physics.

    Basic concepts, quantum and classical distribution functions; general methods of equilibrium statistical mechanics, canonical distributions; theory of ideal systems; statistical theory of nonideal systems; theory of fluctuations; Brownian motion and random processes.

    Methods of mathematical physics.

    Linear and nonlinear partial differential equations of physics.

    Physical problems leading to partial differential equations. Classification of second order partial differential equations. General scheme of the variable separation method. Special functions of mathematical physics. Boundary value problems for the Laplace equation. Parabolic type equations. Equations of hyperbolic type. Boundary value problems for the Helmholtz equation. The concept of nonlinear equations of mathematical physics

    mathematical analysis; analytic geometry; linear algebra; vector and tensor analysis; theory of functions of a complex variable; differential and integral equations; Theory of Probability and Mathematical Statistics; linear and nonlinear partial differential equations of physics.

    Basics of radio electronics

    Signals, linear passive circuits, amplifiers of electrical signals, generation of oscillations, nonlinear signal conversions, noise in radio circuits, analog structures, fundamentals of digital radio electronics.

    National-regional (university) component

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

    Specialization disciplines

    Fundamentals of vibration theory

    Linear and nonlinear oscillatory systems, self-oscillatory systems, oscillatory systems with many degrees of freedom, forced oscillations, parametric action, distributed oscillatory systems, amplification and generation of oscillations, chaotic oscillations.

    Physics of wave processes

    Propagation of radio waves, microwave electrodynamics, waves in plasma media, crystal optics, laser physics, physical acoustics, nonlinear waves.

    Physical electronics

    Fundamentals of vacuum, gas and solid-state electronics, fundamentals of plasma physics, oscillations and waves in plasma, transport phenomena in plasma, kinetics of electromagnetic processes in low-temperature plasma, movement of charged particles in electromagnetic fields, electron microscopy and spectroscopy, emission electronics, interaction of atomic particles with solids bodies, physics of surface and thin films

    Statistical radiophysics

    Random processes and their models, response to noise, the Fokker-Planck equation, fluctuation-dissipation theorem, signal separation from noise, diffraction and interaction of random waves, wave scattering in randomly inhomogeneous media.

    Quantum radiophysics

    Basic types of lasers, response of a medium to the action of an electromagnetic field, mechanisms of optical nonlinearity of media, multiphoton processes, laser spectroscopy.

    Special workshop

    Special disciplines and

    course work

    Electives

    Military training

    Total hours of theoretical training

    Practices

    5. TIMELINES FOR COMPLETING THE BASIC EDUCATIONAL PROGRAM

    GRADUATE IN SPECIALTY

    013800 RADIOPHYSICS AND ELECTRONICS

    5.1 Duration of mastering the main educational training program radiophysics Error! The bookmark is not defined. For full-time education it is

    260 weeks, including:

    theoretical training, including research

    student work, workshops, including laboratory ones, - examination sessions -

    158 weeks

    28 weeks

    practices (research and production) -

    12 weeks

    final state certification, including preparation and defense of final qualifying work and passing the state exam -

    20 weeks

    holidays, including postgraduate leave, -

    42 weeks

    5.2. For persons with secondary (complete) general education, the time frame for completing the basic educational program for specialist training radiophysics for full-time and part-time (evening) forms of study, as well as in the case of a combination of various forms of study, the university increases it to one year relative to the standard period established in clause 1.2 of this educational standard.

    For a more in-depth development of the basic educational program for specialist training radiophysics The preparation time for full-time study may be increased by one year relative to the standard period established in clause 1.2 of this educational standard, in special cases in agreement with the Ministry of Education of the Russian Federation.

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

    5.4. The volume of a student's classroom work during full-time study should not exceed an average of 32 hours per week during the period of theoretical study. At the same time, the specified volume does not include mandatory practical classes in physical education and classes in elective disciplines, as well as general physics workshop, computer workshop, specialization laboratories and special workshop classified as independent student work.

    5.5. In case of part-time (evening) education, the volume of classroom training must be at least 10 hours per week.

    5.6. 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 CONDITIONS FOR IMPLEMENTATION OF THE BASIC EDUCATIONAL PROGRAM FOR GRADUATE TRAINING IN SPECIALTY 013800 RADIOPHYSICS AND ELECTRONICS

    6.1 Requirements for the development of the basic educational program for training radiophysicists

    6.1.1 The higher education institution independently develops and approves the main educational program of the university for training radiophysics based on this state educational standard.

    Disciplines “at the student’s choice” are mandatory, and elective disciplines provided for by the curriculum of a higher educational institution are not mandatory for study by the student.

    Coursework (projects) are considered as a type of academic work in the discipline and are completed within the hours allocated for its study.

    For all disciplines and practices included in the curriculum of a higher educational institution, a final grade must be given (excellent, good, satisfactory, unsatisfactory, or passed, not passed).

    Specialization is part of the specialty within which they are created, and involves obtaining more in-depth professional knowledge, skills and abilities in various fields of activity within the profile of this specialty.

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

    Change the amount of hours allocated to mastering educational material for cycles of disciplines - within 10%;

    Form a cycle of humanitarian and socio-economic disciplines, which should include eleven basic disciplines listed in this state educational standard, the following disciplines are mandatory: “Foreign language” (in the amount of at least 340 hours), “Physical education” (in the amount of at least 408 hours), “National history”, “Philosophy” , and as the recommended UMS in physics UMO of Russian universities (hereinafter UMO) “Psychology and Pedagogy”. The remaining basic disciplines can be implemented at the discretion of the university, taking into account the total time allocated for the cycle. At the same time, it is possible to combine them into interdisciplinary courses while maintaining a mandatory minimum of content;

    Classes in the discipline “Physical Education” in part-time and part-time (evening) forms of education can be provided taking into account the wishes of students;

    To teach humanitarian and socio-economic disciplines in the form of original 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 the research preferences of teachers providing qualifying coverage of the subjects of the cycle disciplines;

    Establish the necessary depth of teaching of individual sections of disciplines included in the cycles of humanitarian and socio-economic, mathematical and natural science disciplines in accordance with the profile of the cycle of specialization disciplines;

    Coordinate the name of specializations in higher professional education with the Educational and Methodological Association, establish the name of specialization disciplines, their volume and content beyond that specified in this state educational standard, as well as the form of monitoring their mastery by students.

    Implement the basic educational training program radiophysics in a shortened time for students of a higher educational institution with secondary vocational education in the relevant profile or higher vocational education. The reduction in terms is carried out on the basis of the existing knowledge, skills and abilities of students acquired at the previous stage of professional education. In this case, the duration of training must be at least three years. Studying in a shorter period of time is also allowed for persons whose level of education or abilities are a sufficient basis for this.

    Provide training for specialists radiophysicists, with the aim of obtaining additional education qualifications on the basis of higher professional education. The names of additional qualifications of higher professional education, the content of programs and training plans are established by the UMO;

    Establish the type of internship (industrial, research, internship with additional qualifications) and change the number of hours (weeks) allocated to each type of internship, including internship with additional qualification. In this case, the total duration of all types of practices must comply with clause 5.1.

    6.2 Requirements for staffing the educational process

    The implementation of the basic educational program for specialist training must be ensured by teaching staff who have a basic education corresponding to the profile of the discipline being taught and the appropriate qualifications (degree), systematically engaged in research and scientific-methodological activities.

    In all disciplines of the natural sciences and general professional cycles and disciplines of specialization, lecturers can only be professors and associate professors who have a scientific degree of doctor or candidate of science in the specialty of the discipline.

    Teachers who do not have an academic degree, but have experience working with students in this discipline (no more than 50%) are allowed to teach at seminars and laboratory classes.

    6.3 Requirements for educational and methodological support of the educational process

    Educational and methodological support of the educational process during specialist training radiophysics should include laboratory, practical and information base provided for by the main sections of the cycles of natural sciences, general professional and special disciplines of this standard, ensuring the preparation of a highly qualified graduate. The university should have the main domestic academic and industry scientific journals of the specialty, the consolidated abstract journal “Physics”, and have well-known foreign journals. The university must be provided with scientific literature in the field of physics, and also have programs for all courses in the disciplines provided for by this standard. The university must have access to the INTERNET and provide the student with free access to information databases and network sources physical information.

    Implementation of the basic educational training program radiophysicist specialist Each student should be provided with access to library funds and databases, the content corresponding to the full list of disciplines of the main educational program of the specialty, the availability of teaching aids and recommendations for theoretical and practical sections of all disciplines and for all types of classes - workshops, course and diploma design, internships. The university must have visual aids, as well as multimedia, audio, and video materials. Laboratory work must be provided with methodological developments for tasks in an amount sufficient to conduct group classes. The university library must have textbooks and teaching aids included in the main list of literature given in the programs of natural sciences, general professional and special disciplines approved by the National Medical University and Educational Institution. By the time the specialty is certified, the level of provision with educational and methodological literature must be at least 0.5 copies per full-time student.

    6.4 Requirements for material and technical support of the educational process

    Higher educational institution implementing the basic educational program for specialist training radiophysics, must have a material and technical base that complies with the current sanitary and technical standards, ensuring the conduct of all types of laboratory, practical, disciplinary and interdisciplinary training and research work of students provided for by the exemplary curriculum. The educational process must be provided with laboratory equipment, computer technology, and software in accordance with the content of the basic natural sciences and general professional disciplines. The university must have special equipment, technical facilities and laboratory facilities (taking into account the capabilities of the university branches and educational and research centers in academic and industrial physics institutes), allowing for professional training.

    The number of students in subgroups of laboratory workshops related to the work of high-frequency installations, ultraviolet, laser and ionizing radiation, high voltage, vacuum equipment, as well as classes in display classes is established in accordance with safety regulations.

    6.5 Requirements for organizing practices

    Industrial practice is intended to familiarize students with the real technological process and consolidate the theoretical knowledge acquired during training. Industrial practice is carried out at radiophysical enterprises, semi-factory and prototype installations in the laboratories of research institutes. Research practice is carried out in research laboratories. Internship for additional qualifications is carried out in accordance with its specifics in the manner established by the university (faculty). The timing of the internship is approved by the rector’s office (dean’s office) in accordance with the requirements for the curriculum. At the end of the internship, the student intern reports on the work done to the university commission and representatives of the host organization. The form of assessment (test, differentiated test) is provided for by the curriculum.

    7. Requirements for the level of training of a graduate in the specialty

    013800 Radiophysics electronics

    7.1. Requirements for the professional preparedness of a specialist

    The graduate must be able to solve problems that correspond to his qualifications specified in clause 1.2 of this state educational standard, which, taking into account the results of the final state certification, ensures the performance of job duties in accordance with the qualification characteristics given in clause 1.3.

    The specialist must know and be able to use, to the extent provided for by this standard,

    general humanitarian and socio-economic, mathematical, natural science and general professional disciplines:

    Basic teachings in the field of humanities and socio-economic sciences, basic concepts, laws and models of mechanics, molecular physics, electricity and magnetism, optics, atomic physics, physics of the atomic nucleus and particles, oscillations and waves, quantum mechanics, thermodynamics and statistical physics, methods of theoretical and experimental research in physics;

    -current state, theoretical work and experimental results in the chosen field of research, phenomena and research methods in the scope of specialization disciplines;

    -fundamental phenomena and effects in the field of physics, experimental, theoretical and computer research methods in this field;

    Mathematical analysis, theory of functions of a complex variable, analytical geometry, vector and tensor analysis, differential and integral equations, calculus of variations, probability theory and mathematical statistics;

    Basic provisions of information theory, principles of constructing systems for processing and transmitting information, fundamentals of an approach to the analysis of information processes, modern hardware and software of computer technology, principles of organizing information systems, modern information technologies;

    -fundamentals of ecology and human health, the structure of ecosystems and the biosphere, interaction between man and the environment, ecological principles of nature conservation and rational environmental management.

    Additional requirements for special training of a specialist radiophysics determined by the higher education institution, taking into account specialization.

    7.2 Requirements for the final state certification of a radiophysicist specialist

    1. General requirements for state final certification.

    Final state certification radiophysics by specialty 013800 Radiophysics and electronics includes defense of final qualifying work and state exam.

    Final certification tests are designed to determine practical and theoretical preparedness radiophysics to fulfill professional tasks established by this state educational standard and continue education in graduate school in accordance with clause 1.4 of this standard.

    Certification tests, which are part of the final state certification of a graduate, must fully comply with the main educational program of higher professional education, which he mastered during his studies.

    7.2.2. Requirements for a specialist's thesis.

    Specialist's thesis radiophysics must be submitted in manuscript form.

    Graduate thesis of a specialist in the specialty 013800 Radiophysics and electronics is qualifying; its topics and content must correspond to the level of knowledge acquired by the graduate in the scope of specialty disciplines and special disciplines (according to the curriculum). The work must contain an abstract part, reflecting the general professional erudition of the author, as well as an independent research part, performed individually or as part of a creative team based on materials collected or obtained independently by the student during the period of scientific and industrial practice. They may be based on materials from research or scientific production work of the department, faculty, scientific or industrial physical organizations. The independent part must be a complete study, indicating the level of professional training of the author.

    Requirements for the content, volume and structure of the thesis are determined by the higher education institution on the basis of the Regulations on the final state certification of graduates of higher educational institutions, approved by the Ministry of Education of Russia, the state educational standard for the specialty and methodological recommendations of the UMO. The time allotted for preparing a specialist’s qualifying work is at least 16 weeks.

    1. Requirements for the state exam in the specialty

    013800 Radiophysics

    As a state exam, an exam is conducted that evaluates general professional training and specialist qualifications in the specialty 013800 Radiophysics .

    The state exam in the specialty is aimed at determining the degree of compliance of the level of preparedness of graduates with the requirements of this educational standard.

    The procedure and program of the state examination in the specialty 013800 Radiophysics are determined by the university on the basis of methodological recommendations and the corresponding sample program developed by the UMO, 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:

    Educational and Methodological Association of Universities, Department of Physics.

    The state educational standard for higher professional education was approved at a meeting of the Presidium of the Department of Physics of the UMO of Russian Universities on November 23-24, 1999 (Tver).

    Chairman of the Physics Department

    UMO of Russian Universities V.I. Trukhin

    Deputy Chairman of the Department of Physics

    UMO of Russian Universities B.S. Ishkhanov

    AGREED:

    Head of the Department of Educational Programs and

    higher and secondary standards

    professional education G.K. Shestakov

    Deputy Head of the Department V.S. Senashenko

    Advisor to the Department S.P. Krekoten

    A.S. is considered the founder of radiophysics. Popov, he invented the radio receiver.

    Now this science covers all natural phenomena, from the study of the atomic nucleus to the laws of the universe.

    The main direction is electromagnetic oscillations and radio waves.

    Remuneration in Russia

    The largest number of vacancies for specialists in the field of radiophysics is located:

    • in the Moscow region — 21.5%;
    • in second place is the Leningrad region. - 7.9%;
    • in third - Nizhny Novgorod - 7.9%.

    Employers offer 7 vacancies with a salary of up to 16,800 rubles, 70 with a salary of up to 32,600, 31 vacancies promise to pay 48,400 rubles, 14 job offers correspond to 64,200 rubles. and 8 - with a salary exceeding this amount.

    A beginner specialist receives 8,000 rubles. ($136) at least.

    The maximum rate received by a development engineer with at least 3 years of experience is 36,000 rubles. ($616).

    The average level corresponds to 23,450 rubles. ($401) in Moscow, such professionals receive an average of 50,000 rubles. ($855), and in St. Petersburg - 40,000 rubles. ($684) .


    The salary of radiophysicists in the country is distributed according to the following rating (in rubles):

    • Moscow region - 45,000 ($770);
    • Primorsky Krai - 42,552 ($728);
    • Kamchatka Territory - 38,000 ($650);
    • Murmansk region — 31668 ($542);
    • Altai Territory - 30,000 ($513).
    • engineer category I - 42,441 ($726); 41455 ($709);
    • design engineer - 46862 ($802); 48722 ($833);
    • engineer II category - 37,557 ($642); 34111 ($583);
    • low-current systems - 33,733 ($645); 48511 ($830);
    • for the introduction of new equipment and technologies - 39,032 ($668);
    • leading engineer - 52702 ($901); 51943 ($889);
    • C# developer - 50,000 ($855);
    • equipment installation engineer - 50,000;
    • programmer - 53702 ($919); 51848 ($887);
    • engineer of the production and technical department - 35,000 ($599);
    • standardization and certification specialist - 20,000 ($342);
    • electrical installation foreman - 60,000 ($1,026); 56093 ($950).

    Data for Russia for other positions in rubles:

    • electronics engineer - 53889 ($922);
    • chief specialist - 43758 ($749);
    • chief - 67307 ($1151);
    • REA developer - 71667 ($1226);
    • HVAC designer - 66667 ($1140);
    • technical supervision engineer - 60667 ($1038);
    • Head of VET - 60,000 ($1,026);
    • chief engineer - 55,000 ($941);
    • technical equipment engineer - 54167 ($927);
    • project - 51667 ($884);
    • designer of low-current systems - 50417 ($862).


    By CIS countries

    IT specialists are the highest paid in Ukraine; they receive an average of 24,000 UAH. ($890).

    The income of other radiophysicists depends on their position (in UAH):

    • communications engineer without work experience - 3000 ($111);
    • specialists in the field of information and telecommunications - 11.2 thousand ($415);
    • in the scientific and technical field - 9000 ($333);
    • laboratory tests - 7200 ($266);
    • in industry - 6844 ($254).


    The minimum salary for a beginning engineer is 2,111 UAH ($78), a professional with experience receives 18,200 UAH ($674), and the average level corresponds to 5,555 UAH ($206).

    In Kazakhstan, a young radio physicist receives 53,000 tenge ($158), an experienced developer earns a maximum of 254,000 tenge ($760), the national average is 94,000 tenge ($281).

    The work of Belarusian specialists is valued at at least 316 rubles. ($160) Maximum salary - 1337 b.r. ($675), the average wage level is 781 b.r. ($394).

    For non-CIS countries

    Germany

    The minimum salary of a beginning engineer in Germany is many times higher than the maximum salary in the CIS countries.


    Salaries of some specialists with radio engineering education in euros per month:

    • engineer - 4380;
    • electronics and telecommunications - 4836;
    • mechanical engineering - 4668;
    • electrical engineer - 4557;
    • programmer - 4067.

    More recently, Germany introduced a minimum wage level that corresponds (in euros):

    • 8.5 - for 1 hour of work;
    • 68 - in 8 hours or 1 working day;
    • 340 - in 40 hours or 5 days;
    • 1360 - for 160 hours of work.

    Poland

    Average salaries for radiophysicists in Poland:

    • director in the IT field - PLN 13,305. ($3494);
    • automation and robotics engineer - PLN 2993. ($786);
    • electronics – PLN 2713 ($749);
    • electrician - PLN 2853 ($750).


    By city in America, annual salaries in the field of technology programming (in $):

    • Toronto - 68,000;
    • Chicago - 107,000;
      Los Angeles - 117,000;
    • Washington - 108,000;
    • Denver - 112,000;
    • Boston - 116,000;
    • New York - 121000.

    Other countries

    Average annual salary data for radiophysicists in dollars:

    • France - 555,000;
    • England - 574,000;
    • Singapore - 56,000;
    • Australia - 79,000;
    • Austria - 77,000.

    Required knowledge

    Basic knowledge of the exact sciences, as well as computer science, Russian and English, is acquired during school years.

    At the university, all these subjects are studied in more depth.


    Knowledge will be useful for conducting scientific and research work in the areas of:

    • laser equipment and technologies;
    • accounting systems;
    • radio engineering;
    • electrical engineering;
    • nanotechnology;
    • radio equipment;
    • quantum radiophysics and radio electronics;
    • acoustics, etc.

    Where can I work?

    There are almost limitless opportunities for graduates of technical universities.

    They can apply their knowledge in the following areas:

    • research work;
    • radio and telecommunications enterprises;
    • video surveillance systems;
    • security companies;
    • production and servicing of electrical appliances;
    • computer companies.


    Specialty code: 01.04.03 Radiophysics

    Description of specialty:“Radiophysics” is a branch of physics that deals with the study of the general laws of generation, transmission, reception, recording and analysis of oscillations and waves of various physical natures and different frequency ranges, as well as their application in fundamental and applied research. The commonality of the studied radiophysical laws of radiation, propagation, interaction and transformation of oscillations and waves in various media, including inhomogeneous, nonlinear and non-stationary, allows us to include radiophysical methods as a universal means of studying the environment at various levels: from the microcosm to outer space.

    Field of study:
    1. Development of the physical principles of generation, amplification and transformation of oscillations and waves of various natures (electromagnetic, acoustic, plasma, mechanical), as well as autowaves in nonequilibrium chemical and biological systems. Searches for ways to create highly efficient sources of coherent radiation in the millimeter, submillimeter and optical ranges, technical development of new frequency and power ranges.
    2. Study of linear and nonlinear processes of radiation, propagation, diffraction, scattering, interaction and transformation of waves in natural and artificial environments.
    3. Development, research and creation of new electrodynamic systems and devices for the formation and transmission of radio signals: resonators, waveguides, filters and antenna systems in the radio, optical and IR ranges.
    4. Study of fluctuations, noise, random processes and fields in concentrated and distributed stochastic systems (statistical radiophysics). Creation of new methods of analysis and statistical processing of signals in conditions of interference. Development of statistical foundations for information transfer. Study of nonlinear dynamics, spatiotemporal chaos and self-organization in nonequilibrium physical, biological, chemical and economic systems.
    5. Development of scientific foundations and principles of active and passive remote diagnostics of the environment, based on modern methods for solving inverse problems. Creation of systems for remote monitoring of the geo-, hydrosphere, ionosphere, magnetosphere and atmosphere. Radio astronomy studies of near and far outer space.
    6. Development of physical principles and creation of new wave technologies for modification and processing of materials.
    7. Development of theoretical and technical foundations of new methods and communication systems, navigation, active and passive location systems based on the use of radiation and reception of wave fields of various physical natures and the development of new frequency ranges.

    Branches of science:
    technical sciences (for the development and creation of instruments, installations, thermal processes and their application in the national economy),
    physical and mathematical sciences (for research of a general physical nature).

    About the specialty:

    Description of the specialty of radiophysics, which universities teach radiophysics, admission, exams, what subjects are studied in the specialty.

    The curriculum includes classical subsections of physics, such as mechanics, molecular physics, electricity and magnetism, waves and vibrations, optics and atomic physics. In the mathematical part, students study mathematical analysis, linear algebra, differential equations, analytical geometry, probability theory and mathematical statistics. In addition, students practice programming.

    Employment in radiophysics

    Radio physicists can work in almost any area of ​​physics, from electronics to acoustics. A graduate can devote himself to both work in the commercial sector and research natural phenomena. To successfully build a career, it is recommended that the student, having chosen a narrow specialization, complete a master's degree.

    Career in Radiophysics

    Due to the growth of the knowledge-intensive sector of the economy, physicists are in demand in the labor market. A physicist will be able to find work in the communications field, robotics, electronics and optical instrument companies