Instructor: Cass Sackett email:sackett@virginia.edu
Office: Phys 155
Phone: 924-6795
Phys 531 Optics is intended to provide broad, intermediate-level coverage
of the field of optics, establishing a solid foundation for further work
or study. This material is important for many disciplines, and we
may have students from Physics, Engineering, Chemistry, Astronomy, or other
departments, at both the graduate and undergraduate level. It will
help for everyone to be aware of the range of backgrounds present, and
to ask questions about unfamiliar material when necessary.
Class Hours: MWF 9:00 AM, in Physics 210
Office Hours: Tuesday, Wednesday 3-4 PM, or by appointment
Webpage: http://galileo.phys.virginia.edu/classes/531.cas8m.fall03/
Assignments and solution sets will be posted
on the web page.
Text: Saleh and Teich, Fundamentals of Photonics
(The same text will be used for Phys 532 next
semester.)
Supplemental texts: (on reserve in Physics Library)
Jenkins and White, Fundamentals of Optics (introductory
level)*
*on reserve
list for Phys 221
Hecht, Optics (intermediate level, good general
reference)
Lipson and Lipson, Optical Physics (intermediate
level)
Klein and Furtak, Optics (intermediate
to advanced)
Born and Wolf, Principles of Optics
(advanced, comprehensive)
Goodman, Introduction to Fourier Optics (intermediate)
Scully and Zubairy, Quantum Optics (advanced)
Prerequisites:
Some familiarity with introductory optics and electromagnetism
is expected, at the typical level of an introductory electromagnetism course.
Facility with basic vector calculus and matrix operations is required.
Also, we will be using complex numbers and Fourier transform techniques.
These methods will be introduced in class, but students who have no previous
exposure to them may have a little trouble at first. If you are struggling
with the math, dont hesitate to let me know. I can review the material
with you at office hours, or we can schedule extra review sessions outside
of class.
Topics:
Ray Optics Optical elements, lens systems, matrix methods
Wave Optics Wave equation, propagation, interference
Gaussian Beams Optics of laser beams
Fourier Optics Optical transfer function, diffraction
Electromagnetism Maxwell equations, interactions of light and matter
Polarization Interfaces, Jones matrices, anisotropic media
Statistical Optics Random and partially coherent light, Wiener-Khinchin
theorem
Photon Optics Photons, statistical properties
Grading:
Homework 50%
Your lowest
homework score will be dropped
Midterm and final exam 50%
Your better
exam will be weighted 35%, and your worse one 15%
Exams:
There will be a midterm and a final exam.
The midterm will be take-home, and will be held over the weekend of October
18-19. The final will be open book, and held in class on Wednesday,
Dec 10 from 2-5 PM.
Homework will be due weekly on Friday at the beginning of class.