Foundations of Electrical Engineering 2

SYLLABUS

a. Course:

Chapter	Contents	Hours
1	Maxwell’s Equations 1.1. Charge conservation law 1.2. Maxwell’s equations in integral form 1.3. Boundary conditions 1.4. Maxwell’s equations	6
2	Maxwell’s Equations in Vacuum 2.1. Universal constants ε0, μ0, c0, and η0        2.2. Maxwell’s equations in vacuum        2.4. Sources of the electromagnetic field in vacuum        2.5. Retarded potentials. Solutions in all space 2.6. Electric and magnetic fields of time independent charges and currents	6
3	Constitutive Relationships 3.1. Conductors and insulators 3.2. Dielectrics 3.3. Magnetic materials	3
4	Energy and Forces 4.1. Electrostatic energy stored in a capacitor 4.2. Steady magnetic energy stored in an inductor 4.3. Electric forces 4.4. Magnetic forces 4.5. Joule’s heating 4.6. Skin effect. Eddy currents. 4.7. Two winding transformer. Losses. 4.8. Synchronous generator	8
5	Electromagnetic Energy Transfer and Transformations 5.1. Poynting’s theorem 5.2. Dielectric and magnetic material heating losses 5.3. Hysterezis losses 5.4. Input power of n-terminal networks	4
6	Radiation 6.1. Hertz dipole. Short dipole. 6.2. Arrays of short dipoles 6.3. Linear antenna	8
7	Transmission Lines 7.1. Transmission line types 7.2 Telegrapher’s equations 7.3. Transients on lossless transmission lines 7.4. Travelling and standing waves	4
8	Quasi Stationary Electric and Magnetic Fields 8.1. Quasi stationary electric fields 8.2. Quasi stationary magnetic fields 8.3. Lumped and distributed parameter models in circuit theory	3
	Total:	42

2. Applications:

Tutorial	Contents		Hours
1	Maxwell’s equations in integral form		2
2	Time-independent electric and magnetic fields		2
3	Magnetic circuits		2
4	Electric energy and forces		2
5	Magnetic energy and forces		2
6	Short dipole radiation		2
7	Transients on transmission lines		2
	Total:	14