The purpose of the discipline is to familiarize with the qualitative and quantitative laws of electromagnetic processes in linear electrical circuits. The discipline studies methods for calculating steady-state modes of linear DC electrical circuits under harmonic and periodic non-sinusoidal influences. As a result of the training, the student will be able to independently calculate DC electric circuits and single-phase sinusoidal current, resonance in electric circuits, in circuits with periodic non-sinusoidal effects, inductively coupled and nonlinear DC electric circuits.

The purpose of the discipline is the study of stable processes in linear electrical circuits and the development of methods for analyzing DC, sinusoidal and non-sinusoidal current circuits, the formation of fundamental knowledge in the theory of linear and nonlinear electric and magnetic circuits, as well as electromagnetic field theory, practical skills in the application of methods of analysis and modeling of electromagnetic circuits and fields. As a result of studying the discipline, the student will be able to model linear and nonlinear DC and AC circuits, calculate the parameters of transients in DC and AC electrical circuits, experimentally determine voltages, currents, and capacities in sections of an electrical circuit.

The formation of knowledge about the principles of operation, parameters and characteristics of the main classes of modern semiconductor devices and integrated circuits; methods of their analysis, as well as the acquisition of skills in the selection and construction of nodes of electronic devices. The study of measuring technologies, combining a set of methods, approaches, software and logic to the organization of measurements in modern radio engineering, electronics and telecommunications

Developing skills in designing power devices for electronic devices, such as stabilizing secondary power sources, pulse converters, transformers for various purposes. To be able to put into practice the methods of analysis of the main power supply devices: transformers, rectifiers, static converters, voltage stabilizers, conduct computer modeling of the power supply system nodes

The study of both qualitative and quantitative steady-state processes in linear electrical circuits of single-phase sinusoidal and three-phase current. Basic concepts of the theory of chains; basic laws and methods for calculating DC electric circuits, in the mode of harmonic oscillations; resonance phenomena in electrical circuits, mutual induction phenomena, three-phase circuits; transient processes in linear circuits with lumped parameters

The study of measurement technology, combining a set of methods, approaches, software and logic to measurement organizations; status and trends in the development of measuring instruments and basic methods of measuring the characteristics of electronic circuits and signals, evaluation of their accuracy.

The purpose of the discipline is to study electrical circuits and transients, four-pole circuits, electrical filters and circuits with distributed parameters, as well as methods for calculating nonlinear circuits at constant currents. The acquired skills will allow the student to study the steady-state modes in linear electrical circuits with distributed parameters, apply the theory of four-poles, electric filters of the "K" type, calculate and design electronic devices, characteristics of basic semiconductor devices, amplifiers.

The purpose and objectives of the discipline are students to study physical processes in a solid, which determine the principle of operation, properties, characteristics and parameters of various devices and devices of semiconductor electronics in discrete and integral design, to acquire knowledge on the principles of construction, functionality, manufacture and use of MI in equipment of various functional purpose, including devices and systems of industrial electronics. Learning outcomes: after completing the course, the student must know: the basics of the theory of electrical circuits, the basic methods of analyzing electrical and magnetic circuits; purpose and principle of operation of components of microelectronic devices; measuring instruments for electrical and non-electrical quantities, main features and design principles of MI; be able to: measure electrical quantities with multimeters; carry out standard tests and technical control of electrical appliances and installations; perform technical calculations and assess the economic efficiency of the electrical appliances used, select the required type of devices and devices made using microelectronic technologies.