Q6 to Q10 are based on the following graph that shows the angular velocity as a function of time for an inelastic collision between two discs, similar to the collision done in Part 2 of your lab. Inoloctio oollicion
Q6 to Q10 are based on the following graph that shows the angular velocity as a function of time for an inelastic collision between two discs, similar to the collision done in Part 2 of your lab. Inoloctio oollicion
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Transcribed Image Text:Use the graph for the inelastic collision shown above to solve this problem. If you
were to allow the system to continue spinning after the collision, at what time (in s)
on the x-axis would the system come to a complete stop, assuming the rate of
decrease you observe remains constant? Round your answer to 2 decimal places.
Transcribed Image Text:Q6 to Q10 are based on the following graph that shows the angular velocity as a
function of time for an inelastic collision between two discs, similar to the collision
done in Part 2 of your lab.
Inelastic collision
50-
40-
Linear Fit for: Data Set | Ang. velocity
omega = mt+b
m (Slope): -0.5269 rad/s/s
b (Y-Intercept): 47.10 rad/s
Correlation: -0.9983
RMSE: 0.06649 rad/s
Statistics for: Data Set |Ang. velocity
min: 20.81 at 10.69 max: 41.91 at 9.963
30-
Linear Fit for: Data Set | Ang. velocity
omega = mt+b
m (Slope): -0.2070 rad/s/s
b (Y-Intercept): 22.88 rad/s
Correlation: -0.9744
RMSE: 0.1089 rad/s
20-
10-
10
15
20
(5.72, 19.03) (At:22.00 Ay:0.00)
Time (s)
Ang. velocity (rad/s)
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