| Individual
course details |
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| Study programme |
Theoretical
and experimental physics, Applied and Computer Physics |
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| Chosen research area (module) |
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| Nature and level of studies |
Undergraduate
studies |
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| Name of the course |
Electromagnetism |
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| Professor (lectures) |
Prof.
Milorad Kuraica |
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| Professor/associate (examples/practical) |
Svetislav
Mijatović |
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| Professor/associate (additional) |
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| ECTS |
9 |
Status
(required/elective) |
required |
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| Access requirements |
Molecular
physics and thermodynamics, Mathematics 1 |
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| Aims of the course |
Adopting
the basic concepts of electromagnetism, necessary for describing all
electromagnetic phenomena. Understanding the basic laws of electromagnetism -
the Coulomb's law of electrostatics, Amper's law of magnetostatics, the laws
of stationary and nonstationary currents, and the law of electromagnetic
induction within electrodynamics. Understanding the formation of basic
equations of electrostatic and magnetostatic fields, as well as the Maxwell
equations of electrodynamics. |
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| Learning outcomes |
Students
are trained to independently solve the basic problems of electromagnetism and
acquire the necessary basics for
understanding the more complex physical phenomena and the laws of
electromagnetism in vacuum and substances. |
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| Contents of the course |
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| Lectures |
1.
Electrostatic field in a vacuum (1.1 Coulomb's law, field functions, 1.2
field equations, 1.3 field energy, electrostatic dipole). 2. Electrostatic
field in dielectrics (2.1 polarization, bonded charges, 2.2 field equations,
energy). 3. Electrostatic field of conductors, capacitors. 4. Stationary
electrical current. 5. Magnetostatic field in vacuum (5.1 Amper's force,
field strength, Lorentz's force, 5.2 field equations, vector potential,
magnetostatic dipole). 6. Magnetostatic fields of diamagnetics and
paramagnetics (magnetization of magnetics, magnetization currents, field
equations). 7. Magnetostatic field of ferromagnetics (macroscopic properties,
permanent magnet), 8. Quasistationary electromagnetic field (8.1 phenomena of
electromagnetic induction, inductance, self-induction and mutual induction,
8.2 electromagnetic field energy, 8.3 oscillatory circuits). 9.
Non-stationary electromagnetic field, Maxwell's equations.
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| Examples/ practical classes |
Computational
exercises are following the lectures. |
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| Recommended books |
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| 1 |
N. N.
Nedeljković i , Увод у
Електромагнетизам:
I Електростатика,
Студентски
трг, Београд
(1995)
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| 2 |
Н.Н.
Недељковић
и Љ.Д.
Недељковић,
Увод у Електромагнетизам:
II и III:
Магнетостатика
и Електродинамика,
скрипта (PDF, word) |
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| 3 |
J. E. Tamm, Fundamentals of the Theory of
Electricity, Mir Publishers, Moscow |
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| 4 |
Purcell
E.M., Morin D.J.-Electricity and Magnetism-Cambridge University Press (2013) |
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| 5 |
И.Е.Иродов,
Задаци из
опште
физике,
Завод за удџбенике,
Подгорица 2000 |
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| Number of classes (weekly) |
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| Lectures |
Examples&practicals |
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Student
project |
Additional |
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| 4 |
3 |
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| Teaching and learning methods |
Lectures,
computational exercises, consultations, demonstrations |
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| Assessment (maximal 100) |
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| assesed coursework |
mark |
examination |
mark |
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| coursework |
10 |
written
examination |
30 |
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| practicals |
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oral
examination |
40 |
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| papers |
20 |
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| presentations |
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