Course data
Course name: Electrodynamics 2
Neptun ID: BMETE15AF48
Responsible teacher: Gábor Takács
Programme: BSc Physics
Course data sheet: BMETE15AF48
Requirements, Informations

Informations for semester 2022/23/2

Course description

The course consists of 


​The schedule, topics and recommended literature (including lecture notes) are given below.


  • Exercise classes: every Wednesday, 14:15-16:00 (F3M01)
    Instructor: Balázs Hetényi

There are 9 sessions involving problem solving, and 3 sessions in which mini-projects are reported. Mini-projects consist of sources on a given topic assigned for homework, which are reported in a short seminar type presentation.


Note that there will be a lecture on the 5th of May (which is Friday, but with class schedule for Monday).


Registration for mini-project presentation (deadline: 22nd of March)

Course schedule

Written sources are listed after each lecture; for the abbreviations cf. the list of recommended reading below.


For each exercise class the topic designation is a link to the corresponding problem sheet.


  • Lecture 1 (27th Feb): Potential theory I. Laplace equation in rectangular domains. Spherical coordinates (​JCE 2.8-2.9 and 3.1; ELN 3.3-3.4​)
  • Lecture 2 (6th Mar): Potential theory II. Laplace equation with asimuthal symmetry. Edge effect. (​JCE 3.2-3.4; ELN 3.5)
  • Lecture 3  (13th Mar): Potential theory III. Spherical harmonics and their addition theorem. Multipole expansion. ​(JCE 3.5-3.6; ELN 3.5, 3.7)
  • Lecture 4 (20th Mar): Surface effects in conductors. General theory of wave guides. (JCE 8.1-8.2)
  • Lecture 5 (27th Mar)TEM, TE and TM modes in wave guides, Energy density and current, phase and group velocities. ​(JCE 8.3-8.4 and 8.5 up to eqn. (8.54); ELN 9.5.1)
  • Lecture 6 (3rd Apr)Resonant cavities. Quality factor, Lorentz resonance curve. (JCE 8.7-8.8; ELN 9.5.2)
  • Lecture 7 (17th Apr): Electromagnetic waves in matter, dispersion, plasma frequency, Kramers-Kornig relation. Absorption and conductivity, Drude model. (​JCE 7.5-7.6 and 7.10; ELN 9.3)
  • Lecture 8 (24th Apr): Radiation of localized oscillating sources. Multipole expansion of radiation. ​(JCE 9.1-9.3; ELN 10.2) 
  • Lecture 9 (5th May): Scattering of electromagnetic waves. Scattering on inhomogeneities, density fluctuations. ​(JCE 10.1-10.2; ELN 12.1-2)
  • Lecture 10 (8th May) Electromagnetic field of a moving charge. Lienard-Wiechert potentials and field strength. Radiated power. (​JCE 14.1 and 14.2; ELN 11.1-3 and 14.5 
  • Lecture 11 (15th May): Radiation field of accelerated charge, angular distribution. Radiated power, relativistic Larmor formula. (​JCE 14.3 and 14.4; ELN 11.4-5)
  • Lecture 12 (22nd May): Distribution in frequency spectrum and angle. Cherenkov radiation (​JCE 14.5 and 13.4)
    • Exercise class 11 (24th May, mini-project presentations)
    • Exercise class 12 (31st May, mini-project presentations)​


Recommended reading: 

Course requirements

Condition for signature: attending at least 70% of exercise classes + submission of all homeworks with a score of at least 40% + complete a mini-project.


The whole course is evaluated together with a single mark, given as a combination of the following:  

  • homework: after the first ten problem solving classes, the solution of three assigned problems must be submitted. Weight: 30%  
  • mini-project presentation. Weight: 30%
  • written test during the week after the lecture period - includes problem solving and theory. Once the written test has been taken, further exams are oral. Weight: 40%

The results are combined with the weights given above and marked according to

0-39: fail (1) 40-54: pass (2) 55-69: average (3) 70-84: good (4) 85-100: excellent (5)

During tests and exams, student can use the following mathematical supplementas well as the summary of calculus in curvilinear coordinates (printed from Wikipedia).