Lesson plan / ELECTROMAGNETIC FIELD THEORY

Lesson Information

Course Credit 3.0
Course ECTS Credit 5.0
Teaching Language of Instruction Türkçe
Level of Course Bachelor's Degree, TYYÇ: Level 6, EQF-LLL: Level 6, QF-EHEA: First Cycle
Type of Course Compulsory
Mode of Delivery Face-to-face
Does the course require compulsory or optional work experience? Z
Course Coordinator Prof. Dr. MİNE ERGÜVEN
Instructor (s)
Course Assistant

Purpose and Content

The aim of the course To give basic electromagnetic area concepts and to prepare students to biomedical applications combining this information with examples at practices.
Course Content Basic hypothesis based on electromagnetic theory, electrostatics and magnetostatics, electromagnetism

Weekly Course Subjects

1General Introduction, History of Science, Basic Concepts
2Vector Analysis (Basic vector definition and vector magnitude, basic concepts such as unit vector / vector equality, the collection, removal and multiplication of vectors/ distance and position vectors / Cartesian, cylindrical and spherical coordinate systems / transformation between coordinate systems
3Electrostatic: Coulomb's Law / Electrostatic Field and Field Lines / electric field strength / electric field strength formed by many point charge/ charge densities and distributions (linear, surface and volume charge densities) / Standard Charge Distribution / electric field strength generated by a charge distribution
4Electrostatic: Electric flux and flux density (D) / the relationship between current density and electric field strength (E) / Gauss's law and Gauss Surface
5Electrostatic: divergence / divergence of a vector field / Divergence features and Divergence Theorem
6Electrostatic: Work, Energy and Potential (work made by moving the point charge / conservation of electrostatic field / electrical potential between two points (V) / point charge potential / Gradient / relationship between E-V / potantial-energy at the static electric field)
7Elektrostatik: Kapasite ve dielektrik malzemeler/ Kutuplanma (Polarizasyon) / Bağıl geçirgenlik / Kondansatörde biriken enerji / Sabit gerilim ve sabit yük durumunda D ve E, / Elektrik dipolü / Laplace denklemi
8Midterm exam
9Magnetostatic: Current Area and Biot-Savarts law / Ampere's law / Rotational (Circulation of Magnetic Field) / the relationship between J and H / Magnetic flux density (B) / magnetic vector potential, Stokes theorem
10Magnetostatic: Lorentzs force, magnetic force on a current element, work, power and energy, torque, magnetic materials
11Magnetostatic: Inductance / Faraday's law / self inductance / internal inductance / Mutual inductance / Magnetic Circuits (synagogue spaced core, serial and parallel circuits) / the comparison of electrical circuit with the magnetic circuit
12Electromagnetism: Displacement current, Faradays Induction, Lenz's law
13Electromagnetism: Maxwell's equations, continuity equation, Constitutive Equations
14Electromagnetism: Maxwell's equations, continuity equation, Constitutive Equations

Resources

1-Schaum's Series - Elektromanyetik
2- Lecture notes