1 (m+ M)V2 (m+ M)gh (6.8) Here, h is the height of the combined (pendulum bob metal ball) above their lowest point. This relation permits us to calculate the maximum height h that the pendulum reaches from the combined velocity V , which was calculated from the initial velocity of the projectile in the first part Due to the design of our pendulum, we have one final step. We will not be measuring the height h which the cup in the pendulum rises to, but rather the angle 0 through which it sweeps. By examining figure 1, it is clear that h can be represented function of 0 in the following way: as a R(cos 00 - cos 0) (6.9) h 11

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Chapter1: Units, Trigonometry. And Vectors
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FInd the full derivation of the two equations below solving the expression for the velocity of the metal ball in terms of the angle θ swept through by the pendulum.

1/2 (m+M)V^2 = (m+M)gh

h = R(cos θ0 − cos θ)

Picture of the equations are attached.

Using the values below find the intial velcity using the equation found above. (Answer is 8.16 m/s)

θ R m M
25 30cm 30g 300g
1
(m+ M)V2 (m+ M)gh
(6.8)
Here, h is the height of the combined (pendulum bob metal ball) above their lowest
point. This relation permits us to calculate the maximum height h that the pendulum
reaches from the combined velocity V , which was calculated from the initial velocity
of the projectile in the first part
Due to the design of our pendulum, we have one final step. We will not be measuring
the height h which the cup in the pendulum rises to, but rather the angle 0 through
which it sweeps. By examining figure 1, it is clear that h can be represented
function of 0 in the following way:
as a
R(cos 00 - cos 0)
(6.9)
h
11
Transcribed Image Text:1 (m+ M)V2 (m+ M)gh (6.8) Here, h is the height of the combined (pendulum bob metal ball) above their lowest point. This relation permits us to calculate the maximum height h that the pendulum reaches from the combined velocity V , which was calculated from the initial velocity of the projectile in the first part Due to the design of our pendulum, we have one final step. We will not be measuring the height h which the cup in the pendulum rises to, but rather the angle 0 through which it sweeps. By examining figure 1, it is clear that h can be represented function of 0 in the following way: as a R(cos 00 - cos 0) (6.9) h 11
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