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 Practical Scientific Computing in Python - Agenda
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JDH/FP indicates who presents what.
Day 1 (Friday April 13)
=======================
900-905 Introduction 
Set up computers, introduce instructors.
905-945 FP: Python for scientific computing
A high-level overview of the topic of Python in a scientific context.
950-1045 JDH: Workflow.
Editor: (X)Emacs, Vi(m), etc.
ipython.  Saving and reloading files, interactive use of variables, %run,
%debug, %xmode verbose.
Getting help:
  - pydoc (-g, -p)
  - The standard docs (bookmark them)
  - ipython ?/??, help(), the tab key.  numpy.*cos*? search.
  - The open source process: mailing lists, wikis, svn.  Python
  cookbook. Participate!
Basic setup:
  - ipython
  - matplotlib (latex, etc).
  - Modules: import/reload, PYTHONPATH.
1045:1100 --- Coffee break ---
1100:1215 FP: Introductory examples.
* Qsort: lists, recursion.
* Define a simple function: Wallis' product for pi.  Illustrates arbitrary
size integers.
* Define a trapezoid rule integrator: function objects, arrays.
1215:1315 --- Lunch Break ---
1315:1400 JDH: Basic numpy/pylab
* Record arrays
* Timeseries
1400:1430 FP: Numerical integration and root finding: Find t such that
 \int_0^t{ f(s) ds} = u
for a known, monotonically increasing f(s) and a fixed u.
1430:1500 FP: Univariate polynomials, root finding: poly1d objects,
convolutions, plotting.
1500:1515 --- Coffee break ---
1515:1700: JDH/FP - Optional material (there's a colloquium talk)
* Word frequencies: use of dictionaries and text processing.
* Getbibtex: fetching bibliographic information from the net (networking,
  regular expressions, command-line scripting).
* Beautiful soup: screen-scraping HTML for data extraction.
* Possible 3d demos (not user exercises) using VPython and VTK/MayaVi.
Day 2 (Saturday April 14)
=========================
900:945 JDH: Data fitting/smoothing: least squares, cubic splines, polynomial
fitting.  Basic linear algebra.
945:1030 FP: FFTs: 2-d image denoising via FFT.
1030:1045 --- Coffee break ---
1045:1130 JDH: Logistic map
1130:1200 FP: Bessel functions: special functions library, array manipulations
to check recursion relation.
1200:1300 --- Lunch break ---
1300:1345 JDH: Statistics & distributions
1345:1445 FP:
* Montecarlo integration to compute pi.
* Speed: weave.blitz, weave.inline.
1445:1500 Wrapup, discussion, questions, coffee.
Unused examples and exercises, extra ideas
==========================================
* Prime numbers: the Sieve of Erathostenes.  Illustrates lists and sets.
* Visual (VPython): Show some examples, explain.  Target shooting exercise.
* Eigenfaces problem, part 1.
* Eigenfaces problem, part 2.
* One-dimensional FFT - Bode plot.
* Spectral interpolation.
* Steinman interpolation.
* Extended precision root finding: manually implement newton's method using
  clnum or mpfr.