1. Electric Fields in Matter & Potential Theory.....................7
1.1 Brief Revision of Coloumb’s Law, Electric Field, Electrostatic Potential & Gauss’s
Law (Statement And Significance
1.1.1 Coulomb’s law
1.1.2 Electric Field
1.1.3 Continuous Charge distribution
1.1.4 Electric field lines:
1.1.5 Electric flux:
1.1.6 Gauss’s Law
1.1.7 Curl of Electric field
1.2 Potential Energy of System of Charges:
1.3 Poisson’s and Laplace’s equation
1.4 Motion of Charge Particle Moving With Uniform Velocity in Constant Electric Field :
1.4.1 Motion of a Charge Particle Parallel to Electric Field
1.4.2 Motion of a Charge Particle Perpendicular to Electric Field
1.5 Polarization (P), Electric Displacement (D), Electric dipole, Electric susceptibility and Dielectric Constant and bound charges
1.5.1 Electric Dipole:
1.5.2 Polarization (P ̅), bound volume and surface charge densities.
1.5.3 Electric Displacement (D ̅)
1.5.4 Electric susceptibility, Permittivity and Dielectric constant
1.6 Energy stored in electric field
1.7 Applications: Capacitors with Dielectric

2. Magnetic Fields in Matter & Electrodynamics Basics....40
2.1 Concepts of Magnetic Induction
2.1.1 Important points
2.1.2 Magnetic flux:
2.1.3 Magnetic field
2.1.4 Biot-Savart’s law
2.2 Magnetic Induction Due To Straight Current Carrying Conductor,
Magnetization of Matter, Relationship Between B, H And M.
2.2.1 Magnetic induction due to straight current carrying conductor;
2.3 Motion of Charge Particle Moving with Uniform Velocity in Constant Magnetic Field.
2.4 Lorentz Force & Ampere’s circuital law (Statement) .
2.4.1 Lorentz Force
2.4.2 Ampere’s circuital law
2.5 Force Between Two Current-Carrying Conductors
2.6 Magnetic Dipole Moment and Its Interaction With Magnetic Field
2.7 Magnetic Vector Potential (Statement)
2.8 Magnetization (M) of matter and Relation between B, H, and M
2.9 Types of Magnetic Materials (Concept)
2.10 Concept Of Electromagnetic Induction, Faraday’s Law, Lenz’s Law
(Statement & Concept)
2.11 Applications: Solenoid & Toroid

3. Maxwell’s Equations & Electromagnetic Waves.............72
3.1 Equation of Continuity:
3.2 Concept of Electromagnetic Induction, Faradays Law of Induction,
Lenz’s Law, Displacement Current, Generalization Of Amperes’ Law.
3.2.1 Concept of Electromagnetic Induction
3.2.2 Faraday’s Law of Induction
3.2.3 Lenz’s law
3.2.4 Displacement current, Generalization of Amperes’ law.
3.3 Maxwell’s Equations (Differential and Integral form) and Their Physical Significance.
3.3.1 Maxwell’s Equations
3.3.2 Physical significance of Maxwell’s equations
3.3.3 Maxwell’s Equations for Various Fields:
3.3.3.1 Maxwell’s Equations for Static Fields (Differential form)
3.3.3.2 Maxwell’s Equations for good conductors (Differential form)
3.3.3.3 Maxwell’s Equations for free space (Differential form)
3.3.3.4 Maxwell’s Equations for Dielectrics (Differential form)
3.4 Electromagnetic Wave Equation
3.5 Plane Electromagnetic Waves in Free Space
3.6 Transverse nature of EM waves
3.7 Poynting theorem and Poynting vector
3.8 Applications: Electromagnetic Spectrum and Communication Systems

References.................................................................100