In the figure, a very light rope is wrapped around a wheel of radius R meters and does not slip. The wheel is mounted with frictionless bearings on an axle through its center. A block of mass 14 kg is suspended from the end of the rope. When the system is released from rest it is observed that the block descends 10 meters in 2.0 seconds. What is the moment of inertia I of the wheel? a - acceleration of the block, and g - acceleration due to gravity. 14 kg A) I = m(a - g)R²/a B) I= m(a + g)R²/a C) Im(2g - a)R²/2a D) I= m(2a - g)R²/g E) I= m(2g2a) R²/2a

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Chapter1: Units, Trigonometry. And Vectors
Section: Chapter Questions
Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...
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In the figure, a very light rope is wrapped around a wheel of radius R meters and does not slip. The wheel is mounted with frictionless bearings on an axle through its
center. A block of mass 14 kg is suspended from the end of the rope. When the system is released from rest it is observed that the block descends 10 meters in 2.0
seconds. What is the moment of inertia I of the wheel? a - acceleration of the block, and g - acceleration due to gravity.
14 kg
A) I = m(a - g)R²/a
B) I= m(a + g)R2/a
C) I = m(2g - a)R²/2a
D) I = m(2a - g)R²/g
E) I= m(2g - 2a) R²/2a
Transcribed Image Text:In the figure, a very light rope is wrapped around a wheel of radius R meters and does not slip. The wheel is mounted with frictionless bearings on an axle through its center. A block of mass 14 kg is suspended from the end of the rope. When the system is released from rest it is observed that the block descends 10 meters in 2.0 seconds. What is the moment of inertia I of the wheel? a - acceleration of the block, and g - acceleration due to gravity. 14 kg A) I = m(a - g)R²/a B) I= m(a + g)R2/a C) I = m(2g - a)R²/2a D) I = m(2a - g)R²/g E) I= m(2g - 2a) R²/2a
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