Computational Reasoning in High School Science and Mathematics - PowerPoint PPT Presentation

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Computational Reasoning in High School Science and Mathematics

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A collaboration between Maryland Virtual High School and the Pittsburgh Supercomputing Center Participants will gain A working definition of computational reasoning ... – PowerPoint PPT presentation

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Title: Computational Reasoning in High School Science and Mathematics


1
Computational Reasoning in High School Science
and Mathematics
  • A collaboration between
  • Maryland Virtual High School
  • and the
  • Pittsburgh Supercomputing Center

2
Workshop Goals
  • Participants will gain
  • A working definition of computational reasoning
    by using simulations to collect and analyze data,
    test hypotheses, and illustrate scientific
    concepts.
  • A basic understanding of the capabilities of a
    variety of computational tools.
  • Insight into the ways in which computational
    reasoning can be infused in their teaching.

3
Workshop Outline
  • http//mvhs.shodor.org/activities/CAST/IntroOutlin
    e.html
  • Three Facets of Computational Reasoning
  • Meeting the Pennsylvania Standards
  • Coin-flipping and Forest Fires
  • Fractions and the Water Cycle
  • A Smorgasbord of Resources
  • Next Steps

4
What do we mean by computational reasoning?
  • Understanding how to analyze, visualize and
    represent data using mathematical and
    computational tools
  • Using computer models to support theory and
    experimentation in scientific inquiry
  • Using models and simulations as interactive tools
    for understanding complex scientific concepts

5
How do the Pennsylvania State Department of
Education Academic Standards address modeling?
Modeling and the Standards
6
Academic Standards for Science and Technology
  • Unifying Themes
  • 3.1.7, 10, 12a - Apply concepts of systems,
    subsystems, feedback and control to solve complex
    technological problems.
  • 3.1.7, 10, 12b - Apply concepts of models as a
    method to predict and understand science and
    technology.
  • 3.1.7, 10, 12e - Evaluate change in nature,
    physical systems and manmade systems.

7
Academic Standards for Science and Technology
  • Inquiry and Design
  • 3.2.7, 10, 12c - Apply the elements of scientific
    inquiry to solve multi-step problems.
  • 3.2.7, 10, 12d Analyze and use the
    technological design process to solve problems.

8
Academic Standards for Science and Technology
  • Science, Technology and Human Endeavors
  • 3.8.7, 10, 12b - Apply the use of ingenuity and
    technological resources to solve specific
    societal needs and improve the quality of life.
  • 3.8.7, 10, 12c Evaluate the consequences and
    impacts of scientific and technological
    solutions.

9
Reach Out and Torch Someone!
  • Open the Reach Out and Torch Someone link from
  • http//mvhs.shodor.org/activities/CAST/IntroOutlin
    e.html
  • Using an agent-based pre-built forest fire model
    to explore
  • Probability
  • Random Numbers
  • Averages
  • Predictions and Hypothesis-Testing
  • Assumptions

10
Probability Preparation
  • Coin flipping
  • In 10 trials, will you get an equal number of
    heads and tails?
  • Would you get closer to an even split if you did
    a thousand flips?
  • Computer-generated random numbers
  • Will the computer do any differently in 10
    trials? Should it?
  • Open the Flipping Pennies link from
    http//mvhs.shodor.org/activities/CAST/IntroOutlin
    e.html

11
Simulating a Forest Fire
  • Assumptions
  • All the trees are the same.
  • There is no wind.
  • At a certain probability, the fire can spread
    from one tree to its nearest neighbors.
  • http//www.shodor.org/interactivate/activities/fir
    e1/index.html
  • Data Analysis
  • Open the Fire Analysis link from
    http//mvhs.shodor.org/activities/CAST/IntroOutlin
    e.html

12
Water, Water, Everywhere
  • Open the Water, Water, Everywhere link from
    http//mvhs.shodor.org/activities/CAST/IntroOutlin
    e.html
  • Using a systems-based pre-built model to explore
  • A Closed Cycle
  • Equilibrium
  • Proportional Reasoning
  • Predictions and Hypothesis-Testing
  • Assumptions

13
Water, Water, Everywhere
condensation
precipitation
evaporation
14
The Water Cycle Box Model Open the Water Cycle in
Vensim link from http//mvhs.shodor.org/activities
/CAST/IntroOutline.html
15
Water Cycle Excelet
  • Using slider bars and iteration, you can do the
    same model in Excel.
  • Open the Water Cycle in Excel link at
    http//mvhs.shodor.org/activities/CAST/IntroOutlin
    e.html
  • The Math behind the Model
  • HAVE HAD CHANGE

16
Pre-Built Models
  • Classroom Lessons from CAST Teachers
  • http//www.psc.edu/eot/k12/exercises_by_discipline
    .php
  • Computational Resources for Teachers
  • http//mvhs.shodor.org/activities/CAST/
  • Interactive Tools for Mathematics
  • http//www.shodor.org/interactivate
  • The Computational Science Education Reference
    Desk
  • http//www.shodor.org/refdesk/
  • The National Science Digital Library
  • http//nsdl.org/resources_for/k12_teachers/?pager
    pathways

17
How to Use in the Classroom
  • To test hypotheses
  • To simulate processes
  • To gain a deeper understanding of complex
    concepts

18
Next Steps
  • Sign up for in-depth workshops on
  • Excel
  • Systems Modeling
  • Agent-Based Modeling
  • Guided Exploration of Web-based Simulations
  • Contact Cheryl Begandy at begandy_at_psc.edu
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