Course Information


Course Information
Course Title Code Semester L+U Hour Credits ECTS
ELECTROMAGNETIC THEORY II PEN411 7. Semester 3 + 0 3.0 4.0

Prerequisites None

Language of Instruction English
Course Level Bachelor's Degree
Course Type Elective
Mode of delivery
Course Coordinator
Instructors
Assistants
Goals To present the mathematical foundations and advanced applications of electrodynamics.
Course Content Poisson and Laplace equations and their solution techniques in different coordinate systems, Green theorem, multipoles, dielectric medium, magnetostatics, Maxwell equations, plane waves, scattering, radiation, numerical techniques in electromagnetics.
Learning Outcomes 1) Able to explain the interaction between light and matter
2) Learn the application of maxwell equations
3) Comprehend the correlation between magnetic and electric field

Weekly Topics (Content)
Week Topics Teaching and Learning Methods and Techniques Study Materials
1. Week Overview of Maxwell equations, treatment of the boundary condtions in various media. Waves in one dimension, boundary conditions, reflections and transimissions, polarization Lecture; Question Answer; Problem Solving; Discussion
Debate
Problem Based Learning
Homework Presentation (Including Preparation Time) Report (Including Preparation and presentation Time) Activity (Web Search, Library Work, Trip, Observation, Interview etc.)
2. Week Electromagnetic waves in vacuum, wave equations for E and B, monochromatic plane waves. Energy and momentum in electromagnetic waves Lecture; Question Answer; Problem Solving; Discussion
Debate
Problem Based Learning
Homework Report (Including Preparation and presentation Time) Activity (Web Search, Library Work, Trip, Observation, Interview etc.)
3. Week Electromagnetic waves in matter, propagation in linear media. Lecture; Question Answer; Problem Solving; Discussion

Problem Based Learning
Homework Presentation (Including Preparation Time) Project (Including Preparation and presentation Time) Report (Including Preparation and presentation Time)
4. Week Electromagnetic waves in conducting medium, Reflection at a conducting surface, Frequency dependence of the index of refraction, Phase and group velocities, absorption and dispersion, Anomalous dispersion Lecture; Question Answer; Problem Solving; Discussion

Problem Based Learning
Homework Presentation (Including Preparation Time) Project (Including Preparation and presentation Time) Report (Including Preparation and presentation Time)
5. Week Wave guides, TE waves in a rectangular waveguide, TM modes, TEM modes in coaxial transmission line, Resonant cavities, Schumann resonance Lecture; Question Answer; Problem Solving; Discussion

Problem Based Learning
Homework Presentation (Including Preparation Time) Project (Including Preparation and presentation Time) Report (Including Preparation and presentation Time)
6. Week Philosophy of the potential formulation, Scalar and vector potentials, Gauge transformations, Choice of gauges, Coulomb and Lorentz gauges Lecture; Question Answer; Problem Solving; Discussion

Problem Based Learning
Homework Presentation (Including Preparation Time) Project (Including Preparation and presentation Time) Report (Including Preparation and presentation Time)
7. Week Continuous charge distributions, retarded potentials, Retardation effect in potential formula, Jefimenko’s equations Lecture; Question Answer; Problem Solving; Discussion

Problem Based Learning
Homework Presentation (Including Preparation Time) Project (Including Preparation and presentation Time) Report (Including Preparation and presentation Time)
8. Week Liénard-Wiechert potentials, The fields of a moving point charge, Fields and analysis of the momentum conservation and Newton’s third law Lecture; Question Answer; Problem Solving; Discussion

Problem Based Learning
Homework Presentation (Including Preparation Time) Project (Including Preparation and presentation Time) Report (Including Preparation and presentation Time)
9. Week Topological effects in electromagnetism, Aharonov-Bohm effect, Aharonov-Casher effect, Comparison of the roles of potentials in classical electrodynamics and quantum mechanics Lecture; Question Answer; Problem Solving; Discussion

Problem Based Learning
Homework Presentation (Including Preparation Time) Project (Including Preparation and presentation Time) Report (Including Preparation and presentation Time)
10. Week Electric dipole radiation, Magnetic dipole radiation, Radiation resistance Lecture; Question Answer; Problem Solving; Discussion

Problem Based Learning
Homework Presentation (Including Preparation Time) Project (Including Preparation and presentation Time) Report (Including Preparation and presentation Time)
11. Week Radiation from arbitrary sources, Power radiated by a point charge, Larmor formula, Liénard’s generalization, Synchrotron radiation Lecture; Question Answer; Problem Solving; Discussion

Problem Based Learning
Homework Presentation (Including Preparation Time) Project (Including Preparation and presentation Time) Report (Including Preparation and presentation Time)
12. Week Radiation in dielectric medium, Cherenkov effect, Bremsstrahlung Lecture; Question Answer; Problem Solving; Discussion

Problem Based Learning
Homework Presentation (Including Preparation Time) Project (Including Preparation and presentation Time) Report (Including Preparation and presentation Time)
13. Week Radiation reaction, Abraham-Lorentz formula, Run away solutions, Physical basis of radiation reaction Lecture; Question Answer; Problem Solving; Discussion

Problem Based Learning
Homework Presentation (Including Preparation Time) Project (Including Preparation and presentation Time) Report (Including Preparation and presentation Time)
14. Week Magnetic monopoles, Maxwell equations and duality transformations, Dirac magnetic monopole, Charge quantization, Search for monopoles Lecture; Question Answer; Problem Solving; Discussion

Problem Based Learning
Homework Presentation (Including Preparation Time) Project (Including Preparation and presentation Time) Report (Including Preparation and presentation Time)

Sources Used in This Course
Recommended Sources
a) Introduction to Electrodynamics; D.Griffiths Third Ed. Pearson Inc.(2013)b) Classsical Electrodynamics; W.Greiner Springer Verlag (2011)
b) Introduction to Electrodynamics; D.Griffiths Third Ed. Pearson Inc.(2013)

Relations with Education Attainment Program Course Competencies
Program RequirementsContribution LevelDK1DK2DK3
PY13000
PY23000
PY33000
PY54000

*DK = Course's Contrubution.
0 1 2 3 4 5
Level of contribution None Very Low Low Fair High Very High
.

ECTS credits and course workload
Event Quantity Duration (Hour) Total Workload (Hour)
Course Duration (Total weeks*Hours per week) 14 3
Work Hour outside Classroom (Preparation, strengthening) 14 1
Homework 4 3
Presentation (Including Preparation Time) 1 4
Report (Including Preparation and presentation Time) 1 6
Activity (Web Search, Library Work, Trip, Observation, Interview etc.) 1 6
Quiz 4 1
1 3
1 8
1 6
1 3
Total Workload
Total Workload / 30 (s)
ECTS Credit of the Course
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Course Information