Introduction: Experimental motivation, electric and magnetic phenomena around, concept of physical field. Vectors and tensors. Differential calculus of scalar and vector fields; grad, div and curl operations, Gauss' Divergence Theorem, Stokes' Theorem. Electrostatics: Coulomb law, Gauss law, scalar potential ö, multipole expansion for ö . Electrostatics in matter (guides and dielectrics, capacity, polarization P). Boundary conditions. Electric energy. Magnetostatics: Current and Ohm law, Ampére law, Biot-Savart law, vector potential. Magnetostatics in matter. Boundary conditions. Electromagnetism: Electromagnetic induction. Maxwell equations, Lorentz force, wave equation. Field energy and momentum. Electromagnetic waves and their propagation, Fresnell' formulas. Electromagnetic potentials ö and A. Radiation of electromagnetic fields.
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