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Code ...... Course item: ..... 1. INFORMATION ABOUT THE COURSE A. Basic information Name of course Study level Unit running the study programme Study programme Speciality Name of teacher (s) and his academic degree Introductory courses Introduction to Electrical Engineering First degree Faculty of Telecommunication, Computer Science and Electrical Engineering Electrical Engineering Marta Kolasa, PhD, Cieślik Sławomir, Professor course of mathematics, physics knowledge of basic concepts of mathematics, knowledge of basic physical concepts and phenomena Prerequisites B. Semester/week schedule of classes Semester Lectures summer/ winter 30 Classes Laboratories Project Seminars Field exercises 30 ECTS 9 2. EFFECTS OF EDUCATION (acc. to National Qualifications Framework) Knowledge Skills Competences Has mathematical knowledge necessary to describe and analyse operation of electrical circuits. Has knowledge in the field of physics, that include electricity and magnetism, necessary to understand fundamental physical phenomena occurring in the elements and simple electrical circuits. Has gained knowledge in the area of electrical circuit theory. Is able to use methods and mathematical models to analyze simple electrical circuits. Is able to use properly selected methods and devices enabling measurement of fundamental values characterizing basic elements of simple circuits. Has knowledge how to apply safety rules at work. Has a consciousness of responsibility for own work and readiness to present the principles to the teamwork. Has also a consciousness of responsibility for tasks performed in the team. 3. TEACHING METHODS multimedia lecture, laboratory 4. METHODS OF EXAMINATION Llecture - oral exam, laboratory – execution of all lab exercises and preparation of reports 5. SCOPE Lectures Direct current. Basic concepts and terms. Unbranched circuits: Ohm's law, voltage drops in closed circuits, serial connection of resistances. Branched circuits: Kirchhoff's law, parallel connection of resistances. Ways of connecting power sources. Electric work and power - Joul's law. Magnetic field. The magnetic field of an electrical current: the intensity of the magnetic field, magnetic induction, magnetic flux, magnetic permeability. The magnetic field in the iron. The energy of the magnetic field. Electric field. The intensity of the electric field, dielectric permittivity. Capacitors - capacitance, serial and parallel connections of capacitors. Electrical induction. Energy of the electric field. Alternating current. Basic concepts and terms. Period and frequency of the sinusoidal current. Complex numbers: forms of the complex numbers, operations on complex numbers, complex plane. The phasor diagrams of the sinusoidal values. Average and root-mean-square value of the current. Unbranched circuits for the sinusoidal current (with resistance, inductance, capacitance, with a serial connection of resistance and inductance, with a serial connection of resistance and capacitance, with a serial connection of resistance, inductance and capacitance). Electric work and power. Laboratories Subject area of laboratory practice includes below listed issues: measurements of currents and voltages in direct current circuits, measurements of currents and voltages in alternating current circuits, active power measurements in direct and alternating current circuits, specifying the parameters of the basic circuit elements (R, L, C), sinusoidal waveform parameters measure with an oscilloscope, the basic laws of circuit theory. 6. LITERATURE Basic literature 1. Mulukutla S. Sarma, 2001. Introduction to electrical engineering. New York Oxford University Press 2. Allan Hambley, 2013. Electrical Engineering:Principles and Applications. International Edition, Pearson Supplementary literature 3. Clive Maxfield, John Bird, Tim Williams, Walt Kester, Dan Bensky, 2008. Electrical Engineering: Know It All. ELSEVIER SCIENCE & TECHNOLOGY, United Kingdom 1. Opydo W., 2005. Elektrotechnika i elektronika. Wydawnictwo Politechniki Poznańskiej 2. Hempowicz P. i in., 1999. Elektrotechnika i elektronika dla nie elektryków. WNT Warszawa 3. Marecki J., 1999. Podstawy przemian energetycznych. WNT Warszawa 4. Majerowska Z., Majerowski A., 1999. Elektrotechnika ogólna w zadaniach. PWN Warszawa 5. Meller W., 2003. Metody analizy obwodów liniowych. Wydawnictwo ATR w Bydgoszczy