English

Not applicable.

The graduate is able to: (a) explain a principle of the operation and describe basic steps of a design procedure of selected types of linear antennas (dipole, monopole, folded dipole, log-periodic antenna, Yagi antenna); (b) explain a principle of the operation and describe basic steps of a design procedure of linearly and circularly polarized microstrip patch antennas; (c) explain a principle of the operation and describe basic steps of a design procedure of horn, reflector, and slot antennas; (d) explain basic principles of antenna bandwidth increasing; (e) explain principles of antennas with an extremely wide band of operation; (f) explain a term "electrically small anntena"; (g) describe basic steps of a design procedure selected type sof antennas for RFID, mobile applications, and sensors; (h) explain basic principles of antenna modeling; (i) specify, for a desired frequency band, a dominant mechanism of propagation, appropriate types of antennas, and typical services of operation; (j) describe principles of radio wave propagation close to the Earth’s surface; (k) describe basic steps of a radio link design; (l) describe computation of electric field intensity in a real terrain; (m) describe exploitation of propagation curves for the determination of electric field intensity; (n) explain principles of wave propagation and modeling in the area of mobile communication, and explain deterministic, empirical and semi-empirical propagation model; (o) describe a principle of an empirical model creation; (p) describe influence of atmosphere on radio links; (q) explain "digital microwave link", specify its pros and cons, explain quality criterions and basic steps of digital microwave link design.

Students who enroll the course should be able to:
- compute with complex numbers;
- apply fundamental principles of integral and differential calculus;
- explain fundamental principles of electromagnetic field theory (Maxwell’s equations, elementary radiation sources, propagation of plane and spherical wave, propagation of a wave along transmission line).

Not applicable.

Techning methods include lectures and computer laboratories. Course is taking advantage of e-learning (Moodle) system. Students have to write two projects/assignments during the course.

An individual project (25 points), final exam (30 points written part + 45 points oral part=totally 75 points).

1. Antenna basics, antenna analysis.
2. Linear antennas, antenna arrays, linear antennas for selected frequency bands.
3. Microstrip antennas.
4. Horn antennas, reflector antennas.
5. Slot antennas and wideband antennas.
6. Electrically small antennas.
7. Antenna for RFID, antennas for mobile applications, antennas for sensors.
8. Antenna auxiliary circuits, materials for antenna technique, structure and fabrication of antennas, antenna measurement.
9. Radiocommunication services, exploitation of radio spectrum, conditions of radiocommunication, basic concept of radio links design.
10. Propagation of radio waves close to Earth surface, space and surface wave.
11. Mobile radio communication, propagation models for macrocells, microcells, and picocells, indoor radiowave propagation.
12. Influence of atmosphere on radio links.
13. Microwave links.

Not applicable.

The subject is aimed to present basic antenna types, their applications and technical design, and further, principles of radio wave propagation and design of selected types of radio links.

Evaluation of activities is specified by a regulation, which is issued by the lecturer responsible for the course annually.

Not applicable.

Not applicable.

BALANIS, C., A., Antenna Theory: Analysis and Design, 3rd Edition, John Wiley and Sons, New Jersey, 2005. (EN)
BARCLAY, L. Propagation of Radiowaves 2nd Edition. IEE,United Kingdom, 2003. (EN)

Not applicable.