Individual
course details |
|
|
|
|
|
|
Study programme |
Physics |
|
|
Chosen research area (module) |
General
physics |
|
|
Nature and level of studies |
Undergraduate
studies |
|
|
Name of the course |
General
physics 4 |
|
|
Professor (lectures) |
Bratislav
Obradović |
|
|
Professor/associate (examples/practical) |
Vesna
Kovačević |
|
|
Professor/associate (additional) |
|
|
|
ECTS |
9 |
Status
(required/elective) |
required |
|
|
Access requirements |
Matematics
1 |
|
|
Aims of the course |
Through
theoretical instruction, demonstration experiments and computational
exercises, students can get acquainted with the basic laws of electromagnetic
wave propagation, geometric and physical optics. |
|
|
Learning outcomes |
Adopted
basic concepts and gained the necessary understanding of the basic laws of
electromagnetic waves and light propagation through familiarization with the
key experiments and equations that follow from them, while developing
mathematical techniques that enable students to solve specific tasks from the
domain of geometric and physical optics. |
|
|
Contents of the course |
|
|
Lectures |
1.
Maxwell equations, electromagnetic waves, Hertz's experiment, EM wave and its
characteristics, EM field, Pointing vector and light pressure. 2. Huygens
principle, law of reflection and reflection of light, Fermat’s principle. 3.
Fresnel’s relations, radiations, reflection and transmission coefficients,
Brewster's angle of total reflection. 4. Geometric optics, refraction on
aspherical surfaces, refraction on spherical surfaces, equations. 5. Thin
lenses, thin lens equation, image forming using thin lens, Newton's formula. 6. Combination
of lenses, optical systems: eye, magnifier, telescope, microscope. 7.
Aberrations of lenses and optical systems; spherical aberration, chromatic
aberration, distortion, astigmatism and coma. 8. Plane and spherical mirrors
– image forming. 9. Physical optics, superposition of waves, superposition of
two waves, phase diagram, standing wave. 10. Polarization of light, linear,
circular and elliptical polarization, dichroism and polarizers, natural
polarized light, Malus's law. 11. Double refraction (birefringence) of light,
fast and slow ray, calcite, waveplate (retarder). 12. Optical activity,
natural (quartz) and induced (Pockels, Kerr and Faraday effects).13.
Interference of light, interference of two waves of the same frequencies,
concept of coherence, interference of polarized light (Fresnel-Arago law).
14. Interference by wave-front splitting, Young's experiment, Fresnel's
mirror, Fresnel biprism. 15. Interference by amplitude splitting, thin film
interference, thin-wedge interference, Newton's rings, Michaelson
interferometer. 16. Multiple-wave interference, Fabry-Perot interferometer.
17. Light diffraction of N equidistant coherent sources, radiation of line of
coherent sources. 18. Fraunhofer diffraction on one narrow slit, diffraction
grating. 19. Fresnel diffraction, Fresnel zone, diffraction on a circular
aperture. Fresnel's lens. 20. Fresnel diffraction on semi-infinite plane,
Fresnel diffraction on narrow
slit.
|
|
|
Examples/ practical classes |
Example
classes follow the lectures |
|
|
Recommended books |
|
|
1 |
М.
Платиша,
Eлектромагнетизам
и елементи
атомске
физике,
Универзитет
у Београду,
Београд 1997 |
|
|
2 |
Purcell
E.M., Morin D.J.-Electricity and Magnetism-Cambridge University Press (2013) |
|
|
3 |
С.
Е. Божин,
Електромагнетизам
и оптика, Студентски
трг, Београд,
1997 |
|
|
4 |
И.Е.Иродов,
Задаци из
опште
физике,
Завод за удџбенике,
Подгорица 2000 |
|
|
5 |
|
|
|
Number of classes (weekly) |
|
|
Lectures |
Examples&practicals |
|
Student
project |
Additional |
|
|
4 |
3 |
|
|
|
|
|
Teaching and learning methods |
Lectures,
demonstration experiments, in-class problem solving |
|
|
Assessment (maximal 100) |
|
|
assesed coursework |
mark |
examination |
mark |
|
|
coursework |
5 |
written
examination |
45 |
|
|
practicals |
|
oral
examination |
55 |
|
|
papers |
|
|
|
|
|
presentations |
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|