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I'm also passing around a sheet to gather information on your backgrounds. If you have taken a course (or have some competence) in an area, put a check mark in that box. In particular notice that there are two software packages mentioned: Mathematica and R.
I have instituted the "Class Agreement". I'll have everyone sign it who wishes to remain in class.
We obviously have computers readily at hand: I hope that you will use them only for course activities, and not to sell all your stuff on Ebay during class (unless you split the profits 24 ways)....
Given the pre-reqs, I am bound by my sense of duty to assume that you will need some basic introductions to
(unless I were to discover, miraculously, that you have all had any one or all of these courses).
If you have already had these courses, wonderful! Please don't assume that others have, however, and please be patient if you feel that something is "obvious": you may be at an advantage, and should simply be glad that you are able to easily move ahead.
If you have not had these courses, and want more help when we get to these topics, please let me know!
This is a shop class: in the end you'll have one of those shop projects to take home, like the tie rack for your dad....
In most math classes, as mentioned above, we study the tool, and then occasionally look at "applications" (e.g. story problems). In this class, we start with the story problem, and hit it with anything we've got!
Of course we will be learning some tools, as well. But hopefully only "just in time" to solve problems.
Unlike most math classes, math modeling thrives on the open-ended question: these is no "right" answer; no "right" approach:
An apocryphal story (but one too fun not to share!:): Neils Bohr and the barometer.
We value creativity and imagination more in math modeling than in nearly any other course. By the way, here is a mathematical model for calculating the height using a barometer in the boring way!
Collins adds an important unstated part to Polya's strategy: simplification (which would fall into the Planning part of Polya's UPCE).
I think of the last of these three is the most important. I generally like to talk about "pattern and process" (which "empirical and mechanistic" attempt to capture).
Mathematicians look for patterns. Absent any pattern, one does not attempt any modeling!
Once one identifies a pattern, one may model the pattern without understanding why it's there (empirical); but one begins to ask "why that pattern?", at which time one is moving towards identifying a process (structural) which causes that pattern.
Each dichotomy generally comes with
1 Lome 2 Tabligbo 3 Kouma-Konda 4 Atakpame 5 Sotouboua 6 Sokode 7 Kara 8 Niamtougou 9 Mango 10 Dapaong