Difference between revisions of "Mapping diamond surfaces using interference"

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Using Maxwell's equations we can find solutions for a travelling wave comprised of two perpindicular oscillating electric and magnetic fields, whose direction can be giving by the Poynting vector.
 
Using Maxwell's equations we can find solutions for a travelling wave comprised of two perpindicular oscillating electric and magnetic fields, whose direction can be giving by the Poynting vector.
 
[image of EM wave here]
 
[image of EM wave here]
[[Image:wave.gif]]
+
[[Image:emwave.jpg]]
  
  

Revision as of 21:20, 28 February 2007

This page represents a ongoing project dealing with using interference patterns to map the surface of a diamond wafer. Since this is my first page, you'll have to excuse any blatant errors that I do not pick up on immediately. Currently this page will represent my work with Dr. Richard Jones on an approximation to the beam splitter featured in the Michelson interferometer. I will start by giving a brief introduction to electromagnetic radiation, then move on to the approximation itself (including graphs,etc.).


A Bit on Electromagnetic Radiation

Using Maxwell's equations we can find solutions for a travelling wave comprised of two perpindicular oscillating electric and magnetic fields, whose direction can be giving by the Poynting vector. [image of EM wave here] Emwave.jpg


Maxwell's Equations

But, what if I need to make formulas? I have no idea what that will look like, but let's try it. We can also do vector equations, such as Gauss's Law

(1)

Next let's make some chapter headings.

Chapter 1

Chapter 2

Chapter 3

Chapter 4