!! Junkyard)...
Transcript of !! Junkyard)...
Junkyard Spaces Spaces
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Students came to the school from twenty -‐three school districts and many dealt with challenges more immediate and concrete than those presented in the classroom. Challenges
• Students disengaged and disillusioned with school
• Students performing many grade levels below their actual grade level in mathematics
• Students dealing with issues outside of school such as poverty, interpersonal relationships, substance abuse, court dates and mental illness
Program Results
• Time on task: students attended class and stayed in class more often
• Improved engagement: students reported that they preferred learning during Junkyard Spaces v. traditional lessons
• Increased learning: students reported learning and retaining more during a Junkyard Spaces project
History of the Program Based on The Learning Channel’s television show, Junkyard Wars, Junkyard Spaces started out as a solution to a number of challenges present in a high school special education mathematics classroom in a center-‐based program in Wayne County, MI.
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Students used unconventional materials to construct machines and projects.
Materials – salvaged and collected
Ø Plastic, wood, fabric, metal, foam, paper/cardboard
Fasteners
Ø Tape, glue, hardware, string, wire, Velcro, zip ties, bungee cords, twist ties
Tools
Ø Hand tools, power tools, measuring tapes, safety glasses (a must!)
Accessories – available depending on the project
Ø Chassis, scales, balls, weights, bean bags, ramp tower, winch, toy cars, trough, play money, cash box, printing calculator, student calculator, markers, colored paper, storage boxes, plastic tubs, batteries
What’s in our junkyard?
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Over the 10 years this project was done in the classroom, students built a variety of machines and projects under a variety of conditions.
What have we built?
Ramps, power boats, monster truck bulldozers, catapults, race cars, elevators, bridges, rakes, cargo ships
What are some of the conditions we have set?
Time constraints, limited supplies, need for portability, award categories (e.g., Best Teamwork, Most Creative, Best Use of Tape), safety issues, coupons, partners
What are some of the contest objectives we have used?
Farthest throw, holds the most weight, goes the fastest, goes the farthest, lifts the fastest, pushes the most cars/sand, clears the fastest
What is the general procedure?
1. Research the machine
2. Do background math
3. Plan and shop
4. Build/test/build
5. Compete
6. Summarize
7. Celebrate
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There is great flexibility in how to conduct a Junkyard Spaces challenge. Here is one way to go about it.
1. Conduct background research on your project. You can do this through print and online resources.
2. Do some math: Because this was done in a math classroom, math was central to the projects. Sometimes previously published materials were available (e.g. Machine Mathematics), some times teacher-‐created materials were tailed to the project. Some examples are:
a. Torque and levers for catapults
b. Mechanical advantage and pulleys for elevators
c. Surface area, volume and displacement for cargo boats
d. Angle measurement for ramps
e. Using a scale, making change, using a budget, calculating tax and converting units for purchasing supplies (this was part of every project)
3. Receiving the challenge: Participants find out what machine they will be making, how it will be tested, and what the time and budget constraints will be.
4. Build/test/build: Participants may build and test their projects until time is up. During this phase, adults may guide and mentor students who get stuck or discouraged.
5. Compete: Projects are tested to see which works the best. After all teams have competed, participants disassemble their machines, returning reusable junk to the junkyard and discarding used tape and worn down junk.
“I am more likely to attend
class on a Junkyard day.”
-‐Student
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The Junkyard Spaces program and its designer received awards for innovation and effectiveness.
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Awards:
ü Walter P. Chrysler “Closing the Technology Gap In Education” Award, platinum winner in the high school category
ü Michigan Association of School Boards “Michigan’s Best” and Educational Excellence Award
ü Radio Shack Teacher of the Year
ü ING Unsung Heroes Award
ü National Council of Teachers of Mathematics Theoni Pappas Grant
ü Samsung Hope for Education Contest Winner
ü National Education Association Innovation Grant
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About the teacher:
Kate Fanelli taught high school mathematics at a center-‐based program for students with severe emotional impairments for 13 years. Her students received the general education curriculum, earning credit toward a diploma, including Algebra 1, Algebra 2, and Geometry. Kate joined the Michigan’s Integrated Mathematics Initiative (Mi2) in 2013 where she is the Math Accessibility Specialist, promoting and supporting high quality mathematics education for all students, including students who struggle and especially students with special needs.