Difference between revisions of "CS382:Unit-foundation-templated"

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(New page: = Foundations of Modelling = == Overview == This unit covers all of the basic skills needed to create and vet models. Specifically we provide the answers to three question: # What data d...)
 
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* [http://www2.vo.lu/homepages/geko/atom/report.htm Fermi's yield calculation] a good example of how simple a model can be
 
* [http://www2.vo.lu/homepages/geko/atom/report.htm Fermi's yield calculation] a good example of how simple a model can be
 
* [http://www.dartmouth.edu/~matc/MathDrama/reading/Wigner.html The Unreasonable Effectiveness of Mathematics in the Natural Sciences]
 
* [http://www.dartmouth.edu/~matc/MathDrama/reading/Wigner.html The Unreasonable Effectiveness of Mathematics in the Natural Sciences]
* [http://stephanhartmann.org/Hartmann_Models.pdf more basics]
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* [http://stephanhartmann.org/Hartmann_Models.pdf]
* [http://ncisla.wceruw.org/muse/naturalselection/materials/section2/lesson2A/handouts/handout1.pdf Philosophical]
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* [http://ncisla.wceruw.org/muse/naturalselection/materials/section2/lesson2A/handouts/handout1.pdf]
 
== Lecture Notes ==  
 
== Lecture Notes ==  
Outline of the lectures designed to fit into 2 1:20 slots per week.
+
==== Lecture 1 ====
 +
* What data do you get?
 +
** Modellers need to have an intuitive understanding of what is significant
 +
*** Bring in a jar of Jelly beans.  Ask students to guess how many there are.  Ask for which measurements are necessary to get a good guess.  Have them split into groups of 4ish to discuss what is important.
 +
*** Ask a big question... IE what is the area of the Heart.  Ask for people to state factors. (This provides a theoretical background to the measuring lab.
 +
** Establish a feeling for what is too detailed
 +
*** Explain what the difference is between a back of the napkin calculation and an exhaustive one
 +
*** Provide an example of a model and how to make it tractable.
 +
**** Dropping a ball 10 meters (useful data: Gravity. not really useful: Drag, Gravity at our altitude, ball surface etc.)
 +
** Introduce the idea of orders of magnitude
 +
*** Show [http://powersof10.com/ powers of 10] to the class
 +
*** Talk about fermi-problems
 +
* Where do you get data?
 +
** Making all your own data is hard.
 +
*** Unlike in high-school copying is good, just remember to cite
 +
*** We don't want to reinvent the wheel each time we build something.
 +
*** Ask how many piano tuners there are in Chicago
 +
**** Work through the fermiproblem
 +
==== Lecture 2 ====
 +
** But do we trust other people's data?
 +
*** Discuss the notion of vetting sources
 +
*** explain scientific rigor
 +
* What do you do with your data?
 +
** We need to extrapolate sometimes
 +
*** Explain how to properly extrapolate from known data to what you need.
 +
*** Explain how to defend your extrapolations (Show calculations, explicitly list assumptions, etc)
 +
** Show how to bring data together
 +
*** Revisit the worked fermi-problem
 +
** Explain that data can be evaluated based on accuracy and precision. Explain the difference between them
  
 
== Lab ==  
 
== Lab ==  
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== Inquiry Based Learning ==  
 
== Inquiry Based Learning ==  
Some prose.
+
Estimation of Jelly-beans and area of the heart involves students and promotes collaboration.

Revision as of 22:10, 5 March 2009

Foundations of Modelling

Overview

This unit covers all of the basic skills needed to create and vet models.

Specifically we provide the answers to three question:

  1. What data do you need for a model?
  2. Where do you get that data?
  3. What do you do with that data?

Background Reading for Teachers and TAs

Reading Assignments for Students

For lecture 1

  • Shiflet et al. Chapter 1 "Overview"
    • A good introduction to what models are and how to build them.
  • Wikipedia on modelling

For lecture 2

Reference Material

Lecture Notes

Lecture 1

  • What data do you get?
    • Modellers need to have an intuitive understanding of what is significant
      • Bring in a jar of Jelly beans. Ask students to guess how many there are. Ask for which measurements are necessary to get a good guess. Have them split into groups of 4ish to discuss what is important.
      • Ask a big question... IE what is the area of the Heart. Ask for people to state factors. (This provides a theoretical background to the measuring lab.
    • Establish a feeling for what is too detailed
      • Explain what the difference is between a back of the napkin calculation and an exhaustive one
      • Provide an example of a model and how to make it tractable.
        • Dropping a ball 10 meters (useful data: Gravity. not really useful: Drag, Gravity at our altitude, ball surface etc.)
    • Introduce the idea of orders of magnitude
  • Where do you get data?
    • Making all your own data is hard.
      • Unlike in high-school copying is good, just remember to cite
      • We don't want to reinvent the wheel each time we build something.
      • Ask how many piano tuners there are in Chicago
        • Work through the fermiproblem

Lecture 2

    • But do we trust other people's data?
      • Discuss the notion of vetting sources
      • explain scientific rigor
  • What do you do with your data?
    • We need to extrapolate sometimes
      • Explain how to properly extrapolate from known data to what you need.
      • Explain how to defend your extrapolations (Show calculations, explicitly list assumptions, etc)
    • Show how to bring data together
      • Revisit the worked fermi-problem
    • Explain that data can be evaluated based on accuracy and precision. Explain the difference between them

Lab

Some prose describing the process, outcomes, etc.

Software

N/A

Bill of Materials

  • A jar of jellybeans (to be counted by TA's) $5.00

Evaluation

CRS Questions

  • A question.

Quiz Questions

  • A question.

<The Unit's Name> Metadata

This section contains information about the goals of the unit and the approaches taken to meet them.

Scheduling

A note about early, late or doesn't matter, dependencies.

Concepts and Techniques

This is a placeholder for a list of items from the context page.

General Education Alignment

  • Analytical Reasoning Requirement
    • Abstract Reasoning - From the [Catalog Description] Courses qualifying for credit in Abstract Reasoning typically share these characteristics:
      • They focus substantially on properties of classes of abstract models and operations that apply to them.
        • Solid support
      • They provide experience in generalizing from specific instances to appropriate classes of abstract models.
        • Solid Support, we dedicate an entire lecture to this
      • They provide experience in solving concrete problems by a process of abstraction and manipulation at the abstract level. Typically this experience is provided by word problems which require students to formalize real-world problems in abstract terms, to solve them with techniques that apply at that abstract level, and to convert the solutions back into concrete results.
        • Kinda what the whole unit is about
    • Quantitative Reasoning - From the [Catalog Description] General Education courses in Quantitative Reasoning foster students' abilities to generate, interpret and evaluate quantitative information. In particular, Quantitative Reasoning courses help students develop abilities in such areas as:
      • Using and interpreting formulas, graphs and tables.
        • The discussion of vetting materials strongly supports this objective
      • Representing mathematical ideas symbolically, graphically, numerically and verbally.
        • Tufte. Strong coverage of this
      • Using mathematical and statistical ideas to solve problems in a variety of contexts.
        • Our discussion of how to use data covers this
      • Using simple models such as linear dependence, exponential growth or decay, or normal distribution.
        • Strong support
      • Understanding basic statistical ideas such as averages, variability and probability.
        • Strong support
      • Making estimates and checking the reasonableness of answers.
        • Vetting data covers this
      • Recognizing the limitations of mathematical and statistical methods.
        • Analysis of this unit's support or not for this item.
  • Scientific Inquiry Requirement - From the [Catalog Description] Scientific inquiry:
    • Develops students' understanding of the natural world.
      • We lay the framework for understanding the world through models.
    • Strengthens students' knowledge of the scientific way of knowing — the use of systematic observation and experimentation to develop theories and test hypotheses.
      • One of the major take-away points of this unit is how to develop a scientific knowledge of a situation.
      • In order to test hypotheses students need to build models and apply them to the real world
      • Well established in this unit
    • Emphasizes and provides first-hand experience with both theoretical analysis and the collection of empirical data.
      • The second major point in the above lecture notes is how do we collect data
        • Collecting data is divided into first-hand experience and using other people's data (theoretical analysis)
      • Well established in this unit.

Scaffolded Learning

Some prose.

Inquiry Based Learning

Estimation of Jelly-beans and area of the heart involves students and promotes collaboration.