| 1 | Introduction to field theory and useful operators | Necessity of field theory, Coordinate system |
| 2 | Introduction of fundamental postulates of electrostatics | Gradient, Divergence, Curl and its related theorem |
| 3 | Coulomb’s law and its application | Fundamental postulates of magnetostatics |
| 4 | Gauss’s law and its application | Ampere Circuital law, Vector magnetic potential |
| 5 | Definition and evaluation of electric potential | Biot Savart law, Magnetic dipole, Scalar magnetic potential |
| 6 | Conductors in static electric field, boundary conditions | Magnetization, Equivalent current and charge density |
| 7 | Electrostatics energy and forces | Magnetic field intensity, Magnetic materials |
| 8 | Poisson’s and Laplace’s equations, equation of continuity | Boundary condition for magnetostatics |
| 9 | Maxwell’s equations and their applications | Magnetic energy, Hall effect, Forces and Torques |
| 10 | Potential function and wave equation | Plane electromagnetic waves, Doppler effect |
| 11 | Electromagnetic boundary conditions, solution of wave equations | Transverse electromagnetic waves, Polarization |
| 12 | Analysis of a plain electromagnetic wave | Plane waves in lossy media, Ionized Gas |
| 13 | Analysis of radio wave propagation | Flow of electromagnetic power and poynting vector |