| Course code |
02 44 6129 00 |
| Number of ECTS points |
3 |
| Course title in the language of instruction |
Wireless Communication |
| Course title in Polish |
Wireless Communication (Łączność bezprzewodowa) |
| Course title in English |
Wireless Communication |
| Language of instruction |
English |
| Type of classes |
|
Lecture |
Tutorials |
Laboratory |
Project |
Seminar |
Other |
Total of teaching hours during semester |
| Contact hours |
30 |
|
15 |
|
|
0 |
45 |
| E-learning |
No |
No |
No |
No |
No |
No |
|
| Assessment criteria (weightage) |
0.50 |
|
0.50 |
|
|
0.00 |
|
|
| Unit running the course |
Instytut Elektroniki |
| Course coordinator |
dr inż. Piotr Korbel |
| Course instructors |
dr hab. inż. Sławomir Hausman, dr inż. Łukasz Januszkiewicz, dr inż. Jarosław Kawecki |
| Prerequisites |
Electromagnetism, Signals and Systems, Signal processing in communications
|
| Course learning outcomes |
- Calculate various parameters of a radiowave link
- Design an architecture of simple radiocommunication system
- Explain transmission techniques and call handling procedures applied in radiocommunication systems
- Cooperate within a work-team on solution of complex problems related to radiocommunication systems modelling
|
| Programme learning outcomes |
- Basic knowledge in the field of mathematics, physics and engineering and technical sciences; detailed knowldege in the field of electronics and telecommunications including selected issues from electrical engineering, automation and technical information technology.
- Ability to use one's knowledge from the area of electrical circuits, electronic circuits, basics of telecommunications systems, data transmission, signal processing, wired and wireless communication as well as non-technical aspects to design, build, commision and test a telecommunication system.
|
| Programme content |
Analysis and modeling of radio wave propagation for wireless network design. Electromagnetic spectrum management. Application of decibels in radiocommunication calculations. Radio link budget. Architecture of radio communication systems. Construction and functions of transceivers. Parameters of antenna systems. Modulation and coding techniques. Examples of wireless communication systems. |
| Assessment methods |
EK1 - written test, laboratory report
EK2 - written test, laboratory report
EK3 - written test, discussion
EK4 - observation, discussion
|
| Grading policies |
Lecture: written test (50%) Laboratory: evaluation of the report (50%) |
| Course content |
LECTURE
Introduction: history of radio communications.
Basics of cellular systems coordination distance, commmon channel interference, 1G, 2G, 3G, 4G, 5G systems.
Fundamentals of radio wave propagation in wireless communication systems: use of decibels in radiocommunication calculations: units and conversion formulas; frequency bands used; wave propagation in free space; role of antenna in radio link in system perspective, classification and applications of antennas; basic parameters of antennas: gain and directivity characteristics.
Basic physical phenomena occurring in the analysis of wave propagation in terrestrial radio communication: reflection, attenuation, diffraction, scattering, the law of the fourth power; over-horizon propagation; multipath propagation. Characteristics of propagation environments: open, urban, indoor; examples of empirical and theoretical propagation models, digital terrain maps.
Radio links: power budget. Fundamentals of transmission and reception techniques; Wireless communication systems and networks: channel access methods; radio access systems, Line-of-Sight systems; multimedia transmission and its types;
Methods and standards of sound, image, and text compression.
Effects of electromagnetic waves on people and the environment.
Directions of development of wireless systems and techniques, including 6G cellular systems.
LABORATORY
Realization of projects covering design issues of selected classes of radiocommunication systems: cellular mobile telephony systems, private mobile radio systems (PMR), microwave line-of-sight radio links. System design is based on computer aided prediction of electromagnetic field intensity with the use of digital terrain models. |
| Basic reference materials |
- Notatki do wykładu (Lecture notes)
- Andreas F. Molisch , Wireless Communications 2nd Edition, Wiley-IEEE Press 2010
|
| Other reference materials |
- Wesołowski K., Systemy radiokomunikacji ruchomej, WKiL, Warszawa, 2003
- Gajewski P., Wszelak S.: Technologie bezprzewodowe sieci teleinformatycznych, WKiL, Warszawa, 2008
- Moe Rahnema, From LTE to LTE-Advanced Pro And 5G Moe Rahnema, Artech House, 2017
|
| Average student workload outside classroom |
36 |
| Comments |
None |
| Updated on |
2024-09-06 13:46:58 |
| Archival course yes/no |
no |