Applied Electromagnetics (Modul F)

Higher education teachers: Humar Iztok

Higher education teachers: , Križaj Dejan
Collaborators: Bulić Edi
Credits: 5
Semester: winter
Subject code: 64681

Subject description


  • Enrolment in the class. Acquaintance with content of following courses: Mathematics, Physics, Fundamentals of Electrical Engineering I/II.

Content (Syllabus outline):

  • Recapitulation of electromagnetic laws and relations.
  • Electric field. Electric force (particle in electric field, particle accelerator, cathode ray tube, powder coating, electrophotography, powder electric filtering, electrophoresis, Maxwell forces, electric lenses). Electrostatic shielding (influence, Faraday cage, wire grid, electrostatic guard).
  • Insulator. Calculation of capacity. Breakdown (atmospheric (dis)charging, ionization, lightening, lightening conduction, corona).
  • urrent field. Calculation of resistance (fuses, grounding resistances, cathodic protection).
  • Magnetic field. Magnetic force (particle in magnetic field, mass spectrometer, cathode tube, Hall sensor, Maxwell forces, relay, electromagnet). Properties of magnetic materials. Magnetic circuits. Permanent electromagnet. Magnetic recording. Magnetic shielding.
  • Dynamic field. Calculation of coil induction. Hysteresis and eddy current losses. Skin effect. Electromagnetic shielding. Electromagnetic field restrictions in living environment (mobile telephony base stations).
  • Fundamentals of electromagnetic waves.

Objectives and competences:

  • To acquire electromagnetic theory and numerical methods through practical examples and applications.
  • To use tools for numerical calculations of electromagnetic problems.

Intended learning outcomes:

  • To know and understand practical effects of electric, current, magnetic and electromagnetic field.
  • The acquired knowledge serves as a good background for a direct application and work in industry or with network operators, as well as a good chance for a further upgrade or re-usage in similar fields.

Learning and teaching methods:

Lectures and laboratory work.

Study materials


  1. Chen K. D.: Fundamentals of applied electromagnetics, Addison-Wesley, 2007.
  2. Rajeev B.: Fundamentals of engineering electromagnetics, Taylor & Francis, 2006.
  3. Rajeev B.: Engineering electromagnetics : applications, Taylor & Francis, 2006.
  4. Lauchtmann P.: Einfuhrung in die elektromagnetische Feldtheorie, Pearson Studium, Muenchen, 2005.
  5. Wentworth S. W.: Fundamentals of electromagnetics with engineering applications, J. Wiley & sons, cop. 2005.
  6. Nathan I.: Engineering electromagnetics, Springer, 2000.
  7. Demarest K. R.:Engineering Electromagnetics, Prentice Hall, Upper Saddle River, N. J., 1999.
  8. Hole S. R. H.: A modern short course in engineering electromagnetics, Oxford University Press, 1996.
  9. Hayt W. H.: Engineering electromagnetics, McGraw-Hill Higher Education, 2006
  10. Vanderlinde J.: Classical Electromagnetic Theory, John Wiley & Sons, New York, 1993.

Study in which the course is carried out

  • 3 year - 1st cycle - Applied Electrical Engineering - Control Engineering
  • 3 year - 1st cycle - Applied Electrical Engineering - Power Engineering Technology and System Automation
  • 3 year - 1st cycle - Applied Electrical Engineering - Information and Communication Technologies
  • 3 year - 1st cycle - Applied Electrical Engineering - Quality Engineering
  • 3 year - 1st cycle - Applied Electrical Engineering - Electronics