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In the swing carousel amusement park ride, riders sit in chairs that are attached by a chain to a large rotating drum as shown in (Figure 1). As the carousel turns, the riders move in a large circle with the chains tilted out from the vertical. In one such carousel, the riders move in a 16.5−m-radius circle and take 8.3 s to complete one revolution. Figure 1 of 1 What is the angle of the chains, as measured from the vertical? Express your answer in degrees. θ = ∘

In the swing carousel amusement park ride, riders sit in chairs that are attached by a chain to a large rotating drum as shown in (Figure 1). As the carousel turns, the riders move in a large circle with the chains tilted out from the vertical. In one such carousel, the riders move in a 16.5−m-radius circle and take 8.3 s to complete one revolution. Figure 1 of 1 What is the angle of the chains, as measured from the vertical? Express your answer in degrees. θ = ∘ In the swing carousel amusement park ride, riders sit in chairs that are attached by a chain to a large rotating drum as shown in (Figure 1). As the carousel turns, the riders move in a large circle with the chains tilted out from the vertical. In one such carousel, the riders move in a 16.5−m-radius circle and take 8.3 s to complete one revolution. Figure 1 of 1 What is the angle of the chains, as measured from the vertical? Express your answer in degrees. θ = ∘

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In the swing carousel amusement park ride, riders sit in chairs that are attached by a chain to a large rotating drum as shown in (Figure 1). As the carousel turns, the riders move in a large circle with the chains tilted out from the vertical. In one such carousel, the riders move in a 16.5 − m -radius circle and take 8.3 s to complete one revolution.
Figure 1 of 1
What is the angle of the chains, as measured from the vertical? Express your answer in degrees.
θ = ◻ ∘

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