We will update this page as people choose their projects.

DATES, etc: 
-----------

Send me (karlin@cs.washington.edu) and Thach
(ncthach@cs.washington.edu) your plan for your final project by
Monday, March 2, 2009.

The talks will be given on Tuesday, March 10, 2009 and
Monday, March 16th, 2009.
In your email, please indicate if you cannot make one of
those dates, so we schedule you appropriately. Beyond that,
we will schedule the talks in an order that is related to
the material being covered.

GENERAL GUIDELINES:
-------------------

Your presentation can either be technical, in which you cover a proof
(or part of a proof if you are sharing), preferably from Sipser or
Arora/Barak, or historical/philosophical, in which you present
some interesting information from a popular science book related to
the course material.  Your presentation should be 10 minutes long and should be
done using slides.

If you choose to cover a proof, you need to figure it out on your own.
We will not be helping students to understand the proofs.

GRADING:
_______

As I said in class, for proofs, I will be grading on clarity.
I would much rather that you do a small amount of material well,
than rush through more material, so be careful about that.

For historical/philosophical presentations, I will be
grading you on how interesting/entertaining the presentation
is. Of course I'm still looking for clarity.

GENERAL COMMENTS ABOUT THEOREMS YOU COULD CHOOSE:
------------------------------------------------

Below is a list of possibilities for theorems whose proofs you could
present.  I'm also open to the possibility of you finding something
else, but it needs to be cleared with me.

Presenting the proofs of some of these theorems will require more than
10 minutes. If that is the case, I'd like you to find one or two other
people to share the presentation with. If you do present a proof as a
group, you'll need to figure out a logical way to partition the proof
among you. 

I've listed how many people I think are needed to cover
each proof listed below, but it is quite possible that I am 
not very good at judging this.
As I said above, I'd rather you do a smaller amount well than
a larger amount in a less clear or rushed fashion.


Some of these theorems require background. For example, if you do a
theorem related to context free grammars, you need to define what a
context free grammar is.  The only background you can assume on the
part of the listener is what I've covered in class, but even there use
your judgement as to what concepts need to be reviewed in order for
the presentation to be clear. You should design your presentations
so that they are clear to the whole class.
pwd

Some of these theorems I mentioned in class, but didn't prove.
Or else I hand-waved the proof. Those are perfectly legitimate
choices for presentation.

SOME POSSIBLE THEOREMS WHOSE PROOFS YOU COULD CHOOSE 
TO PRESENT FROM SIPSER (2nd edition)
------------------------------------
*'ed theorems are taken already.

* Theorem 3.13 [Claim 1.9 in Arora/Barak] (1 person) Richard Cook rcook@cs.washington.edu

* Theorem 3.16 (1 person) Arun A V avarun123@yahoo.co.in

* Theorem 4.1  James Shimada jshimada@gmail.com

* Theorem 4.2 Jian Li lijian@microsoft.com

* Theorem 4.5  Jianan Wang  numenor@gmail.com

* Theorem 4.8 Vlad Alexandrov  Vlad.Alexandrov@microsoft.com  March 16

* Theorem 4.7 Tyler Akidau  t.a.akidau@gmail.com

Any of Theorems   4.3, 4.4, 4.9  (each is 1 person)

* Theorem 5.13 Ryan Sturgell  ryan.sturgell@gmail.com

Theorems 5.9, 5.10 (each is 1 person)

Theorem 5.15  (2 people)

* Theorem 5.30 (1 person)  -- Duncan Smith duncanesmith@gmail.com

* Solution to Problem 5.28  (1 person) David St. Hilaire davidjsh@u.washington.edu

Theorem 7.37 [Section 2.3.4 in Arora/Barak]  (3 people)

* Theorem 8.9 (1 person) Abdul Hyee Waqas  awaqas@cs.washington.edu

* Theorem 8.14  (2 people) Umair Aftab omairaftab@gmail.com

Material from Section 8.4 [Corresponding material in Arora/Barak is Section 4.4] 
(5 people worth of material, but individuals could pick off something)

Theorem 9.3 (2 people)

Theorem 9.4 (1 person) -- I did it, but it could be done more carefully.

Theorem 9.15 (2-3 people)

Theorem 9.20  [Related material in Arora/Barak is in Section 3.5] (2 people)

* Section 10.3 [Section 5.2 in Arora/Barak] (2 people)  
   * -- Eric McCambridge ericm6@cs.washington.edu March 16.



SOME POSSIBLE THEOREMS YOU COULD CHOOSE TO PRESENT FROM ARORA/BARAK
===================================================================

(There is overlap between the two books. Generally below I have
only included theorems that are NOT listed above as being in Sipser.)

Claims 1.8  

* Claim 1.11 (1 person each) Scott Anson sanson@microsoft.com

Theorem 1.13, the proof in Appendix 1.A (2 people)

Material in Section 2.3.6 (1 person)

* Theorem 2.17 (1 person) Domenico Lemme domlemme@hotmail.com

* Theorem 2.25 (1 person) David Fields dcf@alumni.cmu.edu

* Section 7.2.1 (1 person) Xiaoxuan Jin jinn_amaranth@hotmail.com

* Section 7.2.3  (1 person) Eric Leese eleese99@yahoo.com

Lemma 7.14 + 7.15 (1 person) David Driver dvdriver@u.washington.edu

Theorem 7.18 (2 people)

Section 8.4  (3 people, but 2 could do most of it)

Appendix 8A  (3 people)

* Anything you want from Chapter 10 (quantum computation)
   John Franco  jcf@drizzle.com March 16
   Dennis Mattoon mattoon@u.washington.edu


BOOKS:
=======

NOTE: It's fine for up to 4-5 people to choose the same book. 
There is plenty of material in each, but you will need to 
coordinate your presentations so there is no overlap.


The Universal Computer: From Leibniz to Turing

Alan Turing: The Enigma
  -- * Aaron Greene akgreene@gmail.com

"Incompleteness: The Proof and Paradox of Kurt Godel" or "Godel's Proof"
  -- * Alex West awest@u.washington.edu March 16
  -- * Hemanth Srinivas hemanth@u.washington.edu March 10
  -- * Thais Melo  thaismelo@gmail.com


The Mystery of the Aleph: Mathematics, the Kabbalah, and the Search for Infinity
  -- * Jason Terpsma  jason.terpsma@gmail.com
  -- * Bryce Morsello morseb@u.washington.edu 

The Code Book: The Science of Secrecy from Ancient Egypt to Quantum Cryptography
  -- * Rick Byers  rbyers@cs.washington.edu
  -- * Egor Nikitin enikitin@cs.washington.edu
  -- * Will Morton frostbyte@gmail.com