OPTI 505 Lab Spring 2010
Last update: Jan 15th, 2010
I. Class Syllabus and Laboratory Guidelines:
Syllabus, Guidelines, and
Schedule for Spring 2010
Lab partners and Lab Times for Spring 2010
Please check the lab partners and lab times above.
Group A's in each lab time, please prepare to do Lab 1 (odd-numbered lab first), and
Group B's prepare for Lab 2 (even-numbered lab first).
First lab notebook collection
Please turn in your lab notebooks by 5 pm on March 12th.
Please submit them to Juliet A. Hughes (Meinel 642)
Lab 1 - 6 will be graded.
Two out of the five questions as well as your observations in each lab will be graded.
Lab notebooks will be returned in your OSC mailboxes after grading.
Final lab notebook and write-up collection
Please turn in your lab notebooks and writeups by 5 pm on May 5th.
Please submit them to Juliet A. Hughes (Meinel 642) before the deadline.
Two out of the five questions as well as your observations in each lab will be graded.
Lab
notebooks will be kept at Meinel 642 (Juliet
Hughes’ office)
An email will be sent when the lab books and final reports are ready for pick-up.
Course evaluation
Please fill out the course evaluation forms
provided by the TA during the last lab class
and return it to the academic office on the 4th floor.
Please feel free to contact me if you have any questions.
Cubicle: #717J (southwest corner of the East wing)
Email: ageorge@optics.arizona.edu
Tel: 621-3276
II. Laboratory procedures: download these!
Here are the labs, and some notes about them:
S. A. Self, "Focusing of spherical Gaussian beams" (1983)
A. E. Siegman, "How to (Maybe) Measure Laser Beam Quality" (Seminar presentation, 1998)
Javier Alda, "Laser and Gaussian Beam Propagation and Transformation" (2003)
Review Prof. Milster's notes for 505:
Chapter
3 - Solutions to the wave equation - Part B
Review Prof. Milster's notes for 505:
Review Prof. Milster's class notes on
Also review his notes on finesse and the Fabry-Perot interferometer:
Chapter 6 - Basic Classical Interferometers
Chapter 7 - Multiple Beam Interference
And I recommend Hecht's "Optics" - he has a short, clear section on Fizeau fringes (P. 397 in the 3rd edition). He also has a good section about the Fabry-Perot interferometer which describes some equations you'll need.
Prof. Milster's notes about shearing interferometry are on the last few pages of Chapter 6 of his class notes (see Lab #5 above).
Prof. Jim Wyant's OPTI-513 class notes are strongly recommended. He has a section about lateral shearing interferometry that talks about several methods you'll be using in the lab:
Note that you
need to do item #2 in the "Straight Edge" section, before arriving!
When you do, use 650nm for the wavelength here (and also in the rest of the
lab).
MATLAB files for “Straight Edge” calculation. Download ‘edge_diffraction’ and ‘myfresnel’ into the same folder and run ‘edge_diffraction’.
Make sure you look over this entire lab, and review what you don't understand - this lab requires that you understand Fresnel zones, Talbot imaging, etc.
Some good references:
Prof. Milster's own notes: Class notes for 505 Lecture, chapters 11 and 13.
Jim Wyant's notes: http://wyant.optics.arizona.edu/fresnelZones/FresnelDiffraction.pdf
Jim Wyant has some great online demos: http://www.optics.arizona.edu/jcwyant/math.htm - highly recommended!
Hecht's "Optics" is always good reading. See the section on Fraunhofer diffraction for rectangular apertures.
Hecht has some excellent sections on Rayleigh scattering, Fresnel zone plates, and gratings.
You should also know how a Fourier transform works, specifically how to transform a Gaussian,
and a pair of delta functions! Try Goodman's "Introduction to Fourier Optics", or Jack Gaskill's
book.
Review coherence, specifically Prof. Milster's notes:
- Notes for Lab 11
(Contains 73 slides. You might want to print 6 on a page)
-Read class lecture notes, and understand the coherence transfer function (CTF), and cutoff frequency.
- Read Goodman "Statistical Optics", Chapter 7.2 (image propagation, Koehler illumination, CTF), Chapter 7.3.2 (propagated image of grating), section 5.2.4 (mutual intensity function J12).
- Read Goodman, "Introduction to Fourier Optics", 6.1
Here are some Matlab simulations showing how the planes are Fourier-transformed: 1 and 2 .
We recommend you read the section from Prof. Wyant's class notes concerning phase-shifting interferometers:
Note that we'll be using WYKO HD-6000 in Dr. Sasian's lab.
III. Discussion:
IV. References:
Michelson interferometer and Diffraction
V. Pictures:
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LAB 2: (1) setup
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LAB 6: Results |
LAB 9: |
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LAB 3: (1) setup
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LAB 7: |
LAB 10: (1) setup (top view) |
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LAB 4: (1) setup (front view)
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LAB 8: |
LAB 11-12: |
Any questions? Any difficulties with this page? Then:
Contact Anoop George @ 621-3276 or email.
Contact Tom Milster @ 621-8280 or email.
This page will be updated as the semester progresses.