PHYS 3741 02: Electromagnetic Field Theory 1

PHYS 3741 - Electromagnetic Field Theory 1

Fall 2026 Syllabus, Section 02, CRN 43979,

Credit hours: 3

Course Meeting Times

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Instructor

Donald Priour

Email: djpriour@ysu.edu

Public Instructor Information

Instructor Title: Associate Professor
Instructor Professional Qualifications: B. A. in Physics, Rice University (1995); M. A. in Physics, Princeton (1997); Ph. D. in Physics, Princeton (2000)
Instructor Office Location: Ward Beecher 2025
Instructor Office Phone: (330) 941 - 1420

Private Instructor Information

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Course Description

3741. Electromagnetic Field Theory 1. Intermediate theory of electric and magnetic fields. Topics include electric field, scalar potential, techniques for calculating scalar potential (method of images, Laplace's and Poisson's equations, multipole expansion, Green's Function approach), dielectrics and polarization, Maxwell's equations and their application to the propagation of electromagnetic waves including reflection, refraction, transmission, and absorption; guided waves, retarded potentials, radiating systems, special relativity. Must be taken in sequence, before PHYS 3742. Prereq.: MATH 3705 or MATH 3705H and either PHYS 2611 or ECEN 2633. 3 s.h.

Course Readings

Group Title Author ISBN
Introduction to Electrodynamics (any edition) David Griffiths

The course readings are subject to change in the event of extenuating circumstances, research developments, current events, and/or to ensure better learning.  

Additional Course Materials

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Course Learning Outcomes/Objectives/Goals

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How to Succeed in This Course

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Attendance Expectations

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Late Work Submission Policy

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Additional Course Expectations

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Artificial Intelligence Policy Statement

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Assignments/Assessments

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Grading and Grading Scale

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University Policies

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Schedule of Topics and Assignments

Day Date Proposed Topic Due/To Prepare for Class
Mon 8/24 Introductory remarks and hisorical perspectives
Wed 8/26 Part I: Mathematical review (vector mathematics)
Fri 8/28 Part I: Mathematical review (vector differential operators)
Mon 8/31 Part I: Mathematical review (vector differential operators)
Wed 9/2 Part I: Mathematical review (vector calculus integral theorems)
Fri 9/4 Part I: The Dirac Delta function in one, two, and three dimensions
Mon 9/7 Labor Day Recess; class not scheduled
Wed 9/9 Part II: Coulomb's Law
Fri 9/11 Part II: Electric field due to point charges
Mon 9/14 Part II: Gauss's Law
Wed 9/16 Part II: Applications of Gauss's Law
Fri 9/18 Part II: Electric Potential of point charges and charge distributions
Mon 9/21 Part II: Electric potential energy stored in a charge distribution
Wed 9/23 Part II: Conductors and capacitance
Fri 9/25 Part II: Conductors and capacitors continued
Mon 9/28 First Midterm Examination
Wed 9/30 Part III: Special Approaches in electrostatics (Laplace's equation and uniqueness of its solutions)
Fri 10/2 Part III: Separation of variables to solve a partial differential equation as applied to Laplace's equation in 2D
Mon 10/5 Part III: Separation of variables in the case of Laplace's Equation in 3D rectangular geometries
Wed 10/7 Part III: The image charge method for flat conducting surfaces and spherical conductors
Fri 10/9 Part III: Separation of Variables in spherical coordinates for situations with azimuthal symmetry
Mon 10/12 Part III: Multipole Expansions
Wed 10/14 Part III: Electric dipoles and their electric fields and electric potentials
Fri 10/16 Part IV: Electric Fields in media (polarizability and dielectrics)
Mon 10/19 Part IV: Bound charges of a polarized object
Wed 10/21 Part IV: The electric displacement field and Gauss's law in a dielectric medium
Fri 10/23 Part IV: Examples of calculations involving dielectrics, including a variant of the image charge method used in the context of flat conducting surfaces.
Mon 10/26 Part V: Magnetostatics (magnetic fields and forces) beginning with the Biot-Savart Law
Wed 10/28 Part V: The Biot-Savart Law and ring currents and long straight wires
Fri 10/30 Part V: Ampere's Law and applications
Mon 11/2 Part V: Ampere's Law and applications (continued)
Wed 11/4 Part V: The magnetic Vector potential
Fri 11/6 Part V: The multipole expansion in magnetostatics
Mon 11/9 Part V: Magnetic Dipoles: the magnetic field and magnetic vector potentials of magnetic dipoles
Wed 11/11 Class not schedules due to YSU's observance of Veteran's Day
Fri 11/13 Part VI: Magnetic fields in media (magnetization of materials)
Mon 11/16 Part VI: The auxiliary field
Wed 11/18 Part VI: The counterpart of Ampere's Law for magnetized media
Fri 11/20 Part V: Electrodynamics (The charge continuity condition)
Mon 11/23 Part V: The microscopic version of Ohm's Law
Wed 11/25 Part V: Instances of using the microscopic version of Ohm's Law to calculated the resistance of a macroscopic object
Fri 11/27 Part V: Magnetic flux and Faraday induction
Mon 11/30 Part V: Self inductance and mutual inductance
Wed 12/2 Part V: Motivation of the modified version of Ampere's Law that yield the four Maxwell's Equations
Fri 12/4 Part V: Further discussion of Maxwell's Equation
Mon 12/7 Final Exam (take home) to be scheduled with the consensus of the students enrolled in the course.

The course schedule, policies, procedures, and assignments in this course are subject to change in the event of extenuating circumstances, by mutual agreement, and/or to ensure better learning. 

Additional Information

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