How much would a simple pendulum deflect due to the gravity of a nearby mountain? As a model of a large mountain, use a sphere of radiusR=2.2 kmand mass density=3000 kg/m3. If a small mass is hung at the end of a string of length0.80 mat a distance of3.3Rfrom the center of the sphere (and assuming the sphere pulls in a horizontal direction on the hanging mass), how far would the small hanging mass deflect under the influence of the sphere's gravitational force? Your answer should be inμm(micrometers,10−6 m):
How much would a simple pendulum deflect due to the gravity of a nearby mountain? As a model of a large mountain, use a sphere of radiusR=2.2 kmand mass density=3000 kg/m3. If a small mass is hung at the end of a string of length0.80 mat a distance of3.3Rfrom the center of the sphere (and assuming the sphere pulls in a horizontal direction on the hanging mass), how far would the small hanging mass deflect under the influence of the sphere's gravitational force? Your answer should be inμm(micrometers,10−6 m):
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How much would a simple pendulum deflect due to the gravity of a nearby mountain? As a model of a large mountain, use a sphere of radiusR=2.2 kmand mass density=3000 kg/m3. If a small mass is hung at the end of a string of length0.80 mat a distance of3.3Rfrom the center of the sphere (and assuming the sphere pulls in a horizontal direction on the hanging mass), how far would the small hanging mass deflect under the influence of the sphere's gravitational force? Your answer should be inμm(micrometers,10−6 m):
Transcribed Image Text:How much would a simple pendulum deflect due to the gravity of a nearby mountain? As a model of a
large mountain, use a sphere of radius R = 2.2 km and mass density = 3000 kg/m³. If a small mass
is hung at the end of a string of length 0.80 m at a distance of 3.3 R from the center of the sphere
(and assuming the sphere pulls in a horizontal direction on the hanging mass), how far would the
small hanging mass deflect under the influence of the sphere's gravitational force?
Your answer should be in μm (micrometers, 10-6 m):
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