Magnetic and Electrical Fields

Description

Vector Analysis and coordinate systems - Review on Electric field and Coulomb’s law and Applications - Electric flux density & Gauss’s law and Divergence theorem - Energy, Potential, Potential Difference and Potential gradient and capacitance - Laplace’s & Poisson’s equations and boundary condition (electric) - Review on Magnetic field and Gauss law of Magnetic field vs Electric field - Biot-Savart Law vs. Ampere’s law - Curl’s theory, Magnetic flux density & Magnetic potential vector & Stoke’s theorem - Maxwell’s Equations & Boundary conditions (magnetic) - Force between two parallel conductors and torque on a loop and magnetic moment - Solenoid and the definition of inductor and its inductance - Application for thin and thick co-axial cables and parallel wire transmission line - Energy and Co-energy in magnetic devices and Magnetic circuits - Electromechanical energy conversion (Translational motion) in linear and nonlinear regions.

Program

Bachelor Degree in Electrical and Control Engineering (160)

Objectives

• • Understanding the coordinate systems and vector analysis. • Understanding the concept of charge distributions. • Understanding Electrical Fields, Potential, and Energy • Understanding the basic theory of steady magnetic and time varying fields. • Comprehend magnetic field theory and differentiate between steady magnetic & electrostatic fields. • Understanding the four Maxwell’s equations • Understanding the basics of magnetic circuits and Electromechanical energy conversion