| PHYS4041 Electromagnetic Theory II | |
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This is an advanced undergraduate course on electromagnetic theory. The course aims at introducing concepts of classical electrodynamics, especially electromagnetic waves and radiation and their applications, in various situations at the undergraduate level. The concepts of energy, momentum and angular momentum of electromagnetic fields will be introduced as a basis for understanding the properties of electromagnetic waves. Optical phenomena such as reflection and refraction, absorption and dispersion of light, will be explained. The retarded potentials will be derived as a solution to Maxwellˇ¦s equations and applied to illustrate the generation of radiation by moving point charges, as well as electric and magnetic dipoles. The relation between electromagnetism and special relativity is discussed.
Prof. C. K. Law
Office: SC 307, Tel: 39434334, Email: cklaw@phy.cuhk.edu.hk
Consultation Hour: Tuesday 2:30 - 3:30 pm
Mr. Chan HS
Office: SC 313, Email: hschan@phy.cuhk.edu.hk
Consultation Hour: Monday 3:30 - 5:15 pm
Mr. Chan Ching Kwan
Office: SC 315, Email: ckchan1@phy.cuhk.edu.hk
Consultation Hour: Wednesday 2:30 - 4:15 pm
Monday 1:30 - 3:15 pm (LHC 106)
Wednesday 2:30 - 3:15 pm (Science Centre LG23)
Wednesday 3:30 - 4:15 pm (Science Centre LG23)
Monday 11:30 - 12:15 am (Y.C. Liang Hall G01)
Friday 9:30 - 10:15 am (Mong Man Wai Bldg 706)
David J. Griffiths, Introduction to Electrodynamics, 3rd. Edition, Prentice Hall.
A Zangwill, Modern electrodynamics, Cambridge.
Homeworks (40%) Midterm Test (Cancelled) Final Examination (60%)
1. Electromagnetic field energy, momentum and angular momentum, Maxwell stress tensor. 2. Plane electromagnetic waves in vacuum and simple dielectrics, and in simple conducting media. 3. Reflection and refraction at a dielectric boundary, metallic reflections. 4. Simple models of dielectrics and conductors, dispersion relations. 5. Guided wave propagation. 6. Scalar and vector potentials. 7. Retarded potentials, the Lienard-Wiechert potentials for a moving point charge. 8. Dipole radiation, radiation from an accelerating point charge. 9. Special relativity and electrodynamics.