Electric and Magnetic Fields: ELC 205A Course by Dr. Hanna A. Kirolous, Study Guides, Projects, Research of Introduction to Computers

Information about a university course titled 'electric and magnetic fields' (elc 205a) taught by dr. Hanna a. Kirolous in the electronics & communications eng. Dept. The course covers vector analysis, static electric and magnetic fields, potentials, permittivity, capacitance, energy, poisson's and laplace's equations, currents, and magnetic materials. Students will gain a solid understanding of fundamental laws and be able to solve problems. The textbook is 'field and wave electromagnetics' by david k. Cheng.

Typology: Study Guides, Projects, Research

2017/2018

Uploaded on 10/05/2018

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ELECTRIC AND MAGNETIC FIELDS
ELC 205A
Instructor: Dr. Hanna A. Kirolous
Associate Professor
Electronics & Communications Eng. Dept.
Office Phone: 3567-8825
Course Description “Catalog”:
Review on Vector Analysis for Field Theory, Static Electric Fields, Electric Potential,
Electric Permittivity, Capacitance, Electric Energy and Force, Poisson's and Laplace's
Equations, Steady Electric Currents, Equation of Continuity, Static Magnetic Fields,
Magnetic Vector Potential, Magnetic Field Intensity, Magnetic Permeability, Inductance,
Magnetic Energy and Force
Text book:
David K. Cheng, “Field and Wave Electromgnetics” Second Edition. Addison-Wesley, 1989
Course Outline:
1. Revision on vector analysis and coordinate systems.
2. Basic laws of electrostatics (Coulomb’s, Gauss’, … etc).
3. Electrostatic Potential.
4. Electrostatic field in different materials.
5. Solving techniques for electrostatic problems.
6. Concept of capacitance and energy.
7. Basic laws of static magnetism.
8. Magnetic materials.
9. Inductance and energy stored in magnetic field
Course Outcomes:
After completing this course the students should:
1. Have solid understanding of fundamental laws describing static electric field in
both integral and differential forms.
2. Be able to solve problems involving dielectrics and conductors.
3. Be able to solve two and three dimensional problems using method of electrical
images.
4. Have solid understanding of fundamental laws describing static magnetic field in
both integral and differential forms.
5. Be able to solve problems involving magnetic materials.
6. Have enough skills to calculate capacitances, inductances and electric and
magnetic energies stored in a system of conductors.
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ELECTRIC AND MAGNETIC FIELDS

ELC 205A

Instructor: Dr. Hanna A. Kirolous Associate Professor Electronics & Communications Eng. Dept. Office Phone: 3567 - 8825 Email: [email protected] Course Description “Catalog”: Review on Vector Analysis for Field Theory, Static Electric Fields, Electric Potential, Electric Permittivity, Capacitance, Electric Energy and Force, Poisson's and Laplace's Equations, Steady Electric Currents, Equation of Continuity, Static Magnetic Fields, Magnetic Vector Potential, Magnetic Field Intensity, Magnetic Permeability, Inductance, Magnetic Energy and Force Text book: David K. Cheng, “ Field and Wave Electromgnetics ” Second Edition. Addison-Wesley, 1989 Course Outline:

  1. Revision on vector analysis and coordinate systems.
  2. Basic laws of electrostatics (Coulomb’s, Gauss’, … etc).
  3. Electrostatic Potential.
  4. Electrostatic field in different materials.
  5. Solving techniques for electrostatic problems.
  6. Concept of capacitance and energy.
  7. Basic laws of static magnetism.
  8. Magnetic materials.
  9. Inductance and energy stored in magnetic field Course Outcomes: After completing this course the students should:
  10. Have solid understanding of fundamental laws describing static electric field in both integral and differential forms.
  11. Be able to solve problems involving dielectrics and conductors.
  12. Be able to solve two and three dimensional problems using method of electrical images.
  13. Have solid understanding of fundamental laws describing static magnetic field in both integral and differential forms.
  14. Be able to solve problems involving magnetic materials.
  15. Have enough skills to calculate capacitances, inductances and electric and magnetic energies stored in a system of conductors.

Grading System: Midterm Exam. 20 % Class Quizzes 10 % Final exam 70 % Homework Policy: ▪ Homework assignments will be handed to the teaching assistant before the deadline as announced in class. ▪ No late assignments will be accepted. Make up Exam Policy: ▪ No make up exams will be permitted except in case of emergencies. If so, an approval has to be obtained prior the exam date on case-to-case basis. Instructor: Dr. Hanna A. Kirolous Date: September 2018