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Analyzing Amusement Park Graphs. California’s Great America 2012 Clarence Bakken Teacher Steering Committee. Goals of this Activity. Help students understand graphs they obtain via electronic data collection Help teachers assist students in understanding their data
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Analyzing Amusement Park Graphs California’s Great America 2012 Clarence Bakken Teacher Steering Committee
Goals of this Activity • Help students understand graphs they obtain via electronic data collection • Help teachers assist students in understanding their data • Attain greater understanding of graphical information
Altitude vs. Time Lift hill Corkscrew Loop Ride Profile
Vertical Acceleration/Forces Corkscrew Altitude (m) Bottom of Hill(Start of loop) Dip at end of initial section Vertical (m/s/s) Vertical Forces
Corkscrew Altitude (m) Left turn top of lift hill Left turn thru corkscrew Left turn at end of run-on Lateral (m/s/s) Right turnbefore corkscrew Lateral Forces Lateral Acceleration/Forces
Longitudinal Acceleration/Forces Lift Hill Longitudinal Forces Pushed forward - “Falling” backward Held back - Pitching forward…
Vertical & Longitudinal Maximum Longitudinal Force - mid-level Vertical Force Maximum Vertical Force – zero Longitudinal Force Vertical (m/s/s) Longitudinal (m/s/s) Vertical and Longitudinal
Vertical Acceleration/Force 44.9 sec / 11 periods = 4.1 sec/period ~1.8 g’s ~2g’s Vertical Forces
Longitudinal Acceleration/Force + 1g - 1g Longitudinal Acceleration
Complete Set of Graphs Lateral Forces Longitudinal Forces
Lateral Acceleration/Force 30 periods = 33 sec T = 1.1 sec Midpoint = 10 m/s/s = 1 g Lateral Forces
Ride Profile & Vertical Force Parabolic Altitude (m) Vertical (m/s/s) 3 sec Complete Set of Graphs
Exponential decay Coupling change 3 sec Vertical Force
Conclusion • Need to know direction of accelerometer(s) • Relate to orientation of rider • Relate to location on the ride • Give students opportunity to scour over data, too! • Smooth the data for easier analysis