1 1.1 ELECTROMAGNETICS Boundary Problems in Electrostatic Fields :Special Techniques Laplace’s Equation (3.1), Introduction (3.1.1), Laplace’s Equation in two dimensions (3.1.3), Laplace’s Equation in three dimensions (3.1.4), Boundary conditions and Uniqueness theorems (3.1.5), The method of images (3.2), The classic image problem (3.2.1), Induced surface charge (3.2.2), Force and energy (3.2.3), other image problems (3.2.4) Separation of variables (3.3), Cartesian Coordinates (3.3.1), Spherical coordinates (3.3.2), Multipole Expansion (3.4), Approximate Potential at large distances (3.4.1), The monopole and dipole terms (3.4.2), Origin of Coordinates in multipole Expansions (3.4.3). 2 2.1 ELECTROMAGNETICS (a) Electromagnetic Induction: Faraday’s law (7.2.1), The Induced Electric (7.2.2), Maxwell’s Equation : Electrodynamics before Maxwell (7.3.1), How Maxwell fixed Ampere’s Law (7.3.2), Maxwell’s Equations (7.3.3), The Potential Formulation : Scalar and Vector Potentials (10.1.1), Gauge Transformations (10.1.2), Coulomb Gauge and Lorentz Gauge (10.1.3) (b) Electromagnetic Waves: Electromagnetic Waves in Vacuum: The Wave equation for E and B (9.2.1), Energy and Momentum in Electromagnetic Waves (9.2.3), Electromagnetic Waves in Matter : Propagation in Linear Media (9.3.1), Electromagnetic Waves in conductors (9.4.1), The frequency dependence of permittivity (9.4.3). Basic Reference: Introduction to Electrodynamics by David J. Griffths. 3rd EditionPearson Education Asia. Other Reference: Electromagnetics by B. B. Laud. Willley Eastern Ltd.
1 1.1 ELECTROMAGNETICS Boundary Problems in Electrostatic Fields :Special Techniques Laplace’s Equation (3.1), Introduction (3.1.1), Laplace’s Equation in two dimensions (3.1.3), Laplace’s Equation in three dimensions (3.1.4), Boundary conditions and Uniqueness theorems (3.1.5), The method of images (3.2), The classic image problem (3.2.1), Induced surface charge (3.2.2), Force and energy (3.2.3), other image problems (3.2.4) Separation of variables (3.3), Cartesian Coordinates (3.3.1), Spherical coordinates (3.3.2), Multipole Expansion (3.4), Approximate Potential at large distances (3.4.1), The monopole and dipole terms (3.4.2), Origin of Coordinates in multipole Expansions (3.4.3). 2 2.1 ELECTROMAGNETICS (a) Electromagnetic Induction: Faraday’s law (7.2.1), The Induced Electric (7.2.2), Maxwell’s Equation : Electrodynamics before Maxwell (7.3.1), How Maxwell fixed Ampere’s Law (7.3.2), Maxwell’s Equations (7.3.3), The Potential Formulation : Scalar and Vector Potentials (10.1.1), Gauge Transformations (10.1.2), Coulomb Gauge and Lorentz Gauge (10.1.3) (b) Electromagnetic Waves: Electromagnetic Waves in Vacuum: The Wave equation for E and B (9.2.1), Energy and Momentum in Electromagnetic Waves (9.2.3), Electromagnetic Waves in Matter : Propagation in Linear Media (9.3.1), Electromagnetic Waves in conductors (9.4.1), The frequency dependence of permittivity (9.4.3). Basic Reference: Introduction to Electrodynamics by David J. Griffths. 3rd EditionPearson Education Asia. Other Reference: Electromagnetics by B. B. Laud. Willley Eastern Ltd.
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