Electromagnetism

The aim of this course is to provide a solid grounding in electromagnetism for electronics engineers. These foundations are necessary for understanding the course on interconnections in the 2nd semester and the specialization course modules in the 2nd and 3rd years.
After reminders of electrostatics and magnetostatics, and Maxwell's equations, the course covers free and guided propagation, and an introduction to radiation mechanisms. Among other things, it presents the conditions for the transition between the formalism of electromagnetism and that of electricity, notably between quasi-TEM wave propagation and the formalism of the equations of propagation in lines.

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* Historical and technological perspective. Properties of electromagnetic waves - Maxwell's equations - Plane waves in vacuum - Polarization - Dielectric properties of matter - Magnetic properties of matter * Propagation mechanisms - Reflection , Refraction , Transmission - Propagation in a non-perfect dielectric and in a good-conducting material * Propagation using a metallic guide - Hollow rectangular guide - Coaxial cable - Transmission line made up of two parallel conductors - Telegraphers' equation * Propagation using a dielectric guide - Solving from Maxwell's equations and optical approach - Guiding by parallel-faced dielectric plate - Multimode and single-mode optical fibers - Numerical aperture - Attenuation - Energy distribution in a single-mode fiber. Coupling with a source. * Radiation - Antennas - Hertz dipole - Radiation pattern - Gain of an aerial - Half-wave antenna and traveling-wave antenna.

Applied physics

Course handout.
P.Lorrain, D.R.Corson, F.Lorrain "Les phénomènes électromagnétiques" Ed. Dunod, 2002
S.Ramo,J.R.Whinnery, T.Van Duzer "Fields and Waves in communication electronics" Ed. John WileyetSons, 1994
John-David Jackson "Electrodynamique classique" Ed. Dunod