7 kg 3 kg 49° 53° There is no friction in the system above except between the rope and the pulley so that the rope does not slip on the pulley. The pulley is a uniform spherical shell with a mass of 1.43 kg and radius of 12 cm, and the rope does not slip on the pulley. The system is released from rest. Use work-energy principles to determine 2.3 meters how much kinetic energy does the smaller mass have after moving d parallel to the ramp? K

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7 kg
3 kg
53°
49°
There is no friction in the system above except between the rope and the pulley so
that the rope does not slip on the pulley. The pulley is a uniform spherical shell
with a mass of 1.43 kg and radius of 12 cm, and the rope does not slip on the
pulley. The system is released from rest. Use work-energy principles to determine
how much kinetic energy does the smaller mass have after moving d = 2.3 meters
parallel to the ramp?
K =
Transcribed Image Text:7 kg 3 kg 53° 49° There is no friction in the system above except between the rope and the pulley so that the rope does not slip on the pulley. The pulley is a uniform spherical shell with a mass of 1.43 kg and radius of 12 cm, and the rope does not slip on the pulley. The system is released from rest. Use work-energy principles to determine how much kinetic energy does the smaller mass have after moving d = 2.3 meters parallel to the ramp? K =
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