SylabUZ
| Course name | Electromagnetic field theory |
| Course ID | 06.2-WE-ELEKTP-EFT-Er |
| Faculty | Faculty of Computer Science, Electrical Engineering and Automatics |
| Field of study | Electrical Engineering |
| Education profile | academic |
| Level of studies | First-cycle Erasmus programme |
| Beginning semester | winter term 2017/2018 |
| Semester | 4 |
| ECTS credits to win | 3 |
| Course type | obligatory |
| Teaching language | english |
| Author of syllabus |
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| The class form | Hours per semester (full-time) | Hours per week (full-time) | Hours per semester (part-time) | Hours per week (part-time) | Form of assignment |
| Lecture | 30 | 2 | - | - | Exam |
- to familiarize students with electromagnetic field equations and mathematical formalism used in electromagnetic field theory
- develop the ability to use field equations to describe electromagnetic processes in electrical systems
Physics, Mathematical Analysis, Fundamentals of Electrical Engineering, Materials Engineering
Basics of vector analysis. Vector algebra. Coordinate systems. Divergence and curl operators and their
interpretation. Gauss’ law. Divergence theorem. Stokes’ theorem. Basic vector identities. Laplace’s
equation. Field classification.
Electromagnetic fields. Electromagnetic field vectors. Maxwell's equations and their interpretation.
Material constants in Maxwell’s equations. Electromagnetic field energy. Poynting vector.
Electrostatic field. Work in electrostatic field. Conservative property of the electrostatic field. Scalar potential and its gradient. Energy in static electric fields. Calculation of electrostatic fields. Boundary conditions across interface of two dielectrics. Quasi-static electric fields.
Magnetostatic field. Biot-Savart law. Ampere’s law. Magnetic flux. Vector magnetic potential. Stokes’ theorem in magnetic field. Forces and torques in magnetic fields. Energy in magnetic field.
Electromagnetic induction. Faraday;s law. Self- and mutual magnetic inductance. Induced electromagnetic force.
Magnetic circuits. Amper’s law in magnetic circuits. Nonlinearity of magnetic circuits.
Electromagnetic waves. Wave propagation. Wave equations. Delayed potentials. Hertzian dipole. Near and far fields. Electromagnetic wave with sinusoidal excitation Electromagnetic plane wave. Electromagnetic waves in dielectrics and conducting media. Skin effect.
Transmission lines. Distributed parameters of transmission lines. Wave equations. Pulse and sinusoidal steady-state excitations. Reflection of electromagnetic waves. Smith Chart. Impedance matching.
Numerical techniques for solving electromagnetic problems.
Lecture
| Outcome description | Outcome symbols | Methods of verification | The class form |
Lecture – obtaining a positive grade in written or oral exam.
Calculation of the final grade: lecture 100%.
1. Moon P., Spencer D.E.: Teoria pola, PWN, Warszawa, 1990. (in polish)
2. Edminster J.A.: Electromagnetics, McGraw-Hill, 1993.
3. Jackson J. D.: Elektrodynamika klasyczna, PWN, Warszawa 1982. (in polish)
1. Magnusson P.C. et al.: Transmission lines and wave propagation, CRC Press, 2001.
2. Binns K. J., Lawrenson P.J.: Analysis and computation of Electric and magnetic field problems, Pergamon Press, 1973.
Modified by dr hab. inż. Adam Kempski, prof. UZ (last modification: 23-04-2017 20:13)
