ustsymbl.gif (1195 bytes)  Physics 3053

Honors Electricity and Magnetism I

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Syllabus

 

Course Description

PHYS-3053 Honors Electricity and Magnetism I is a more in-depth version of PHYS3033 Electricity and Magnetism I and designed for more enthusiastic students who wish to acquire a deeper understanding of the subject. Students taking this course instead of PHYS3033 will benefit from the more vigorous approach and can build a solid foundation for possible graduate studies and research in future.

The course requires the following prerequisites:  Students must have passed PHYS1114 or General Physics II with a grade of B- or above and they must have taken PHYS1314 Honors General Physics II. Students will follow the same lecture as the PHYS-3033 students but with an additional 50 minutes lecture, during which additional topics will be introduced. The assignments and examination problems will be more challenging than in PHYS-3033.

 

Intermediate Electricity and Magnetism I, provides a more mathematical approach than the first year courses on the same topic. It is a required core course in the undergraduate education and followed by an elective course: PHYS-3034, Intermediate Electricity and Magnetism II. The electromagnetic phenomena covered and the mathematical tools introduced are important in a wide range of technological areas. The course starts with a review on the important mathematical concepts such as vector calculus. In the following, these concepts are applied to electrostatics in vacuum and in matter. In the third chapter, special techniques for solving electrostatic problems such as the Laplace’s equation are discussed.  In the second half of the course, we are having a close look on the relation between currents and magnetic fields and the effect of magnetic fields in matter. We discuss the phenomena of magnetism in the framework of the concepts of bound currents and finally introduce in detail the Maxwell Equations in vacuum and in matter. In the end, we have a brief look on electromagnetic waves.

 

 

ED00073_.wmf (6838 bytes)Instructor

Dr. LORTZ, Rolf Walter

Office: Rm 4478
Office Hours: Appointment by email
Telephone: 7491
E-mail: lortz@ust.hk
 

IAs ED00074_.wmf (5718 bytes)

Name

Phone

Office

E-mail

Office Hours

Kwok King Wai Kevin  3469 2264 4469 kwkwokaa@ust.hk By appointment per email
Lau Kai Ming            2358 7528 4468 minglau@ust.hk By appointment per email
Ng Ka Ho Tony            2358 7528 4468 tonykhng@ust.hk By appointment per email

HH02434_.WMF (13696 bytes)Schedule
For detailed lecture and/or lab schedules, click here.

Main Lectures (together with Phys3033) Wednesday, Friday 3:00 - 4:20 pm LORTZ, Rolf Walter   Rm 2464, Lift 25/26
 

Additional Honors Lecture

 

Tuesday 6:00-6:50 pm

    Rm: 4502 (Lift 25/26)

Textbook:BS00751_.wmf (2904 bytes)

Introduction to Electrodynamics (3rd Ed.) by David J. Griffiths

Course Reserve available at the Reserve Counter of the Library on a 2 hour loan basis

 

Grading Scheme:

Assignments 10%
Midterm 40%
Final Examination 50%

 

Intended Learning Outcomes

On successful completion of this course, students are expected to be able to:

  1. Define electric and magnetic fields and apply the Coulomb’s law, Gauss’ law, Biot-Savart law and Faraday’s law to calculate the electric fields of static charge distributions and the magnetic fields originating from flowing currents.

  2. Describe the vector nature of electric and magnetic fields and their relation to a scalar and a vector potential, respectively, solve the Laplace’s equation for different boundary conditions and perform multipole expansion of the electromagnetic potentials.
  3. Explain the interaction of electromagnetic fields with matter using the concepts of relative permittivity and permeability, polarization and magnetization, the fields D, H, E and B, bound charges and bound currents define the boundary conditions on fields at interfaces between media.
  4. Apply the Maxwell’s equations to formulate the relation between time-varying electric and magnetic fields based on Faraday’s law and the Ampere-Maxwell Law and apply the concepts of Maxwell's displacement current, the continuity equation, inductance and electromagnetic waves.

 

Wepage of the instructor: http://physics.ust.hk/lortz/

 

For problems or questions regarding this web please contact Rolf Lortz.
Last revised on 21 August 2012.