Learn · Foundations of Classical Electrodynamics
Lecture 10 of 73Week 2 :
Lecture 10 : Divergence operator, Divergence Theorem
Prof. Samudra Roy · IIT Kharagpur
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All the lectures
- Lecture 01 : Vector analysis, Scalar and vector fields, vector identities
- Lecture 02 : Vector Analysis (Cont.)
- Lecture 03 : Use of Levi-Civita Symbol, Coordinate system
- Lecture 04 : Coordinate system, Orthogonal Transformation
- Lecture 05 : Spherical Coordinate system, Line, surface and volume element
- Lecture 06 : Line, surface and volume element (cont.)
- Lecture 07 : Line, surface and volume integral
- Lecture 08 : Differential calculus, Gradient
- Lecture 09 : Gradient operator, Concept of divergence
- Lecture 10 : Divergence operator, Divergence Theorem
- Lecture 11 : Curl operator, Stokes Theorem
- Lecture 12 : Gradient, Divergence and Curl (A recap), Vector identities
- Lecture 13 : Curvilinear coordinate system
- Lecture 14 : Curvilinear coordinate system (Cont.)
- Lecture 15 : Curvilinear coordinate system (Cont.)
- Lecture 16 : Delta Function
- Lecture 17 : Delta Function (Cont.)
- Lecture 18 : Helmholtz’s Theorem
- Lecture 19 : Helmholtz’s Theorem(Recap), Tutorial
- Lecture 20 : Tutorial (Cont)
- Lecture 21 : Concept of charge, Charge density
- Lecture 22 : Coulomb’s Law
- Lecture 23 : Coulomb’s Law (Cont.), Charge distribution
- Lecture 24 : Charge distribution problem, Gauss’s Law
- Lecture 25 : Topics More on Gauss’s Law
- Lecture 26 : Application of Gauss’s Law
- Lecture 27 : Electrostatic potential
- Lecture 28 : Electrostatic potential (Cont.)
- Lecture 29 : Electrostatic energy
- Lecture 30 : Electrostatic energy (Cont.)
- Lecture 31 : Electrostatic energy calculation
- Lecture 32 : Electrostatic dipole
- Lecture 33 : Electric dipole (Cont.)
- Lecture 34 : Multipole expansion
- Lecture 35 : Monopole and Dipole moment
- Lecture 36 : Quadrupole moment
- Lecture 37 : Dipole and Quadrupole moment (Cont.)
- Lecture 38 : Conductor
- Lecture 39 : Conductor (Cont.)
- Lecture 40 : Boundary condition
- Lecture 41 : Electrostatic pressure, Capacitor
- Lecture 42 : Energy of the Capacitor, Dielectric
- Lecture 43 : Dielectric (Cont.)
- Lecture 44 : Displacement Vector
- Lecture 45 : Electrostatic boundary value problem
- Lecture 46 : Electrostatic boundary value problem (cont.)
- Lecture 47 : Electrostatic boundary value problem (cont.), Image method
- Lecture 48 : Image method (cont.)
- Lecture 49 : Charge particle in magnetic field
- Lecture 50 : Biot-Savart Law
- Lecture 51 : Application of Biot-Savart Law
- Lecture 52 : Ampere’s Law
- Lecture 53 : Application of Ampere’s Law
- Lecture 54 : Magnetic vector potential
- Lecture 55 : Magnetic vector potential (Cont.)
- Lecture 56 : Magnetic dipole moment
- Lecture 57 : Magnetic dipole moment (Cont.)
- Lecture 58 : Torque and potential energy of magnetic dipole, Magnetization
- Lecture 59 : Bound Current
- Lecture 60 : Magnetic materials
- Lecture 61 : Electromagnetic Induction
- Lecture 62 : Self and mutual inductance
- Lecture 63 : Wave equation, Maxwell’s Equation
- Lecture 64 : Maxwell’s Equation (Cont.)
- Lecture 65 : Maxwell’s Equation: a complete overview
- Lecture 66 : Maxwell’s Equation: a complete overview (Cont.)
- Lecture 67 : Lorentz Gauge, Maxwell’s wave equation
- Lecture 68 : Maxwell’s wave equation (Cont.)
- Lecture 69 : Maxwell’s Equation in matter
- Lecture 70 : Maxwell’s Equation in matter (Cont.)
- Lecture 71 : Tutorial 2 ( Electrostatic )
- Lecture 72 : Tutorial 3 ( Magnetostatic )
- Lecture 73 : Tutorial 4 ( Magnetostatic and EM Wave )