The pulley in the system shown made of two uniform disks that are glued together. The smaller disk has a mass of 0.95 kg and radius of 38 cm. The large disk has a mass of 3 kg and radius of 76 cm. The pulley is mounted on a frictionless axle that runs through the center of the smaller disk and the midpoin between the center and edge of the larger disk. A rope is wrapped around the smaller disk such that it does not slip. Use work-energy principles to determine how far the hanging mass has fallen when the kinetic energy of the pulley is 250 if tho rurtom ctartod at rort

Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
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7.5 kg
The pulley in the system shown made of two uniform disks that are glued
together. The smaller disk has a mass of 0.95 kg and radius of 38 cm. The larger
disk has a mass of 3 kg and radius of 76 cm. The pulley is mounted on a
frictionless axle that runs through the center of the smaller disk and the midpoint
between the center and edge of the larger disk. A rope is wrapped around the
smaller disk such that it does not slip. Use work-energy principles to determine
how far the hanging mass has fallen when the kinetic energy of the pulley is 250 J,
if the system started at rest.
d
m
Transcribed Image Text:7.5 kg The pulley in the system shown made of two uniform disks that are glued together. The smaller disk has a mass of 0.95 kg and radius of 38 cm. The larger disk has a mass of 3 kg and radius of 76 cm. The pulley is mounted on a frictionless axle that runs through the center of the smaller disk and the midpoint between the center and edge of the larger disk. A rope is wrapped around the smaller disk such that it does not slip. Use work-energy principles to determine how far the hanging mass has fallen when the kinetic energy of the pulley is 250 J, if the system started at rest. d m
d
8.4 kg
6.4 kg
In the system shown above, the pulley is a uniform disk with a mass of 0.35 kg and
a radius of 7.25 cm. There is no friction between the 8.4 kg mass and the
horizontal surface, and the rope does not slip on the pulley. The system is
released from rest. Use work-energy principles to determine the kinetic energy of
the (a) 6.4 kg mass and (b) the pulley after the 8.4 kg mass has moved 2.3 meters.
a. K6.4 kg
J
b. Криlley
J
Transcribed Image Text:d 8.4 kg 6.4 kg In the system shown above, the pulley is a uniform disk with a mass of 0.35 kg and a radius of 7.25 cm. There is no friction between the 8.4 kg mass and the horizontal surface, and the rope does not slip on the pulley. The system is released from rest. Use work-energy principles to determine the kinetic energy of the (a) 6.4 kg mass and (b) the pulley after the 8.4 kg mass has moved 2.3 meters. a. K6.4 kg J b. Криlley J
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