| Week | Course Contents |
| W1 | Introduction of Electromagnetism – Vector Analysis |
| Vector Analysis | |
| W2 | Coordinate Systems – Cartesian, Cylindrical and Spherical System |
| Vector Analysis | |
| W3 | Gradient, Divergence and Curl – Divergence Theorem – Stokes Theorem |
| Vector Analysis | |
| W4 | Coulomb's law; Electric field intensity. |
| Static Electric Field | |
| W5 | Electrostatic potential. Electric flux and electric flux density. Gauss's law and applications. Divergence and Gauss divergence theorem. |
| Static Electric Field | |
| W6 | Ohm's law, continuity equations and relaxation time. Capacitance, energy and energy density in electrostatic fields boundary conditions. |
| Static Electric Field | |
| W7 | Poisson's and Laplace's equations: solution to Laplace's equations for problems of one dimension |
| Static Electric Field | |
| MID TERM BREAK | |
| W8 | Magnetic field intensity, Biot-Savart's law; magnetic flux and magnetic flux density. TEST-1 |
| Static Magnetic Field | |
| W9 | Ampere's law and its applications. Stoke's theorem, scalar and vector magnetic potentials; Boundary conditions |
| Static Magnetic Field | |
| W10 | Faraday's law, motional induction in a conductor |
| Static Magnetic Field | |
| W11 | Torque on a conductor; Self and Mutual inductance; Energy and energy density in a magnetic field. |
| Static Magnetic Field | |
| W12 | Maxwell’s Equations. Wave equations and their solutions. Uniform plane wave propagation, relation between electric and magnetic fields, characteristics of plane waves in various media |
| Time Varying Field | |
| W13 | Poyinting vector and complex Poyinting vector theorem for plane waves. TEST-2 |
| Time Varying Field | |
| W14 | Normal incidence of plane waves, transmission and reflection coefficients, standing wave ratio. Wave polarization |
| Time Varying Field | |
Course Outline
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