Skip to main content
You are browsing the curriculum of a past academic year (2022–2023).
Do you want to change to the ongoing academic year?
Course unit, curriculum year 2022–2023
COMM.RF.430

Transmission Lines and Waveguides, 5 cr

Tampere University
Teaching periods
Active in period 3 (1.1.2023–5.3.2023)
Active in period 4 (6.3.2023–31.5.2023)
Active in period 5 (1.6.2023–31.7.2023)
Course code
COMM.RF.430
Language of instruction
English
Academic years
2021–2022, 2022–2023, 2023–2024
Level of study
Intermediate studies
Grading scale
General scale, 0-5
Persons responsible
Responsible teacher:
Mikko Valkama
Responsible teacher:
Jari Kangas
Responsible organisation
Faculty of Information Technology and Communication Sciences 100 %
Coordinating organisation
Electrical Engineering Studies 100 %
Core content
  • Review of plane waves and propagation of TEM waves. Review of interface conditions on material interfaces (esp. ideal dielectric and ideal conductor).
  • Analysis of ideal and non-ideal transmission lines.
    Derivation of the Telegrapher equations starting from EM laws.
    Review of static EM problems to find the transmission line parameters.
    Use of simulation tools (Comsol) to find the transmission line parameters. Basics of use of EM field simulators.
  • Rectangular waveguides, analysis of TE and TM waves in waveguides. Key parameters of rectangular waveguides.
  • Cavity resonators. Analysis of losses and quality factor.
  • Modeling assignment, use of numerical design methods and tools to determine and compare properties of a transmission line, modified waveguide structure, or modified cavity resonator.
  • Laboratory work and experiments with basic transmission lines (coaxial cable, microstrip) and waveguides/cavities (e.g. excitation and quality factor of a cavity resonator).
Complementary knowledge
  • Quasi-TEM waves, analysis of partially filled parallel-plate line.
  • Cylindrical and coaxial waveguides.Dielectric waveguides.
    Alternatives to tune waveguides.
    Hybrid modes in waveguides.
  • Orthogonality of eigenmodes, excitation of a cavity.
  • Implementation of simulation algorithms, FDTD and FIT algorithms.
Learning outcomes
Recommended prerequisites
Further information
Learning material
Equivalences
Studies that include this course
Completion option 1
To pass the course the student must pass two assignments. In addition, the student must complete either of the following two options: 1) Obtain enough bonus points (from homework, online tasks, labs), but this can only yield the highest final grade of three. 2) Take the final exam in which case any grade 0-5 is possible. The exam can be also completed via midterms/small exams.
Completion of all options is required.

Exam

02.03.2023 02.03.2023
Active in period 3 (1.1.2023–5.3.2023)
10.01.2023 27.02.2023
Active in period 3 (1.1.2023–5.3.2023)
26.04.2023 26.04.2023
Active in period 4 (6.3.2023–31.5.2023)
07.06.2023 07.06.2023
Active in period 5 (1.6.2023–31.7.2023)

Participation in teaching

10.01.2023 27.02.2023
Active in period 3 (1.1.2023–5.3.2023)