On a distant planet, where the gravitational field strength is 10.0 N/kg, a block of mass 20 kg hangs from the end of a 5-m fishing boon of mass 14 kg. A cable is attached to the boon two meters from the pivot at an angle of 53º. The submerged block has a mass of 20 kg, but the tension in the rope supporting it is only 140 N (because of the buoyant force). T₂: = T₂= ? 53⁰ (a) The tension, T₂, in the cable is: Volblock 5 m water 3 m N (± 5N) T₁= 140 N (b) What is the volume of the block? Remember, the density of water is 1 g/cc. 20 kg cm³ (+5 cm³)

On a distant planet, where the gravitational field strength is 10.0 N/kg, a block of mass 20 kg hangs from the end of a 5-m fishing boon of mass 14 kg. A cable is attached to the boon two meters from the pivot at an angle of 53º. The submerged block has a mass of 20 kg, but the tension in the rope supporting it is only 140 N (because of the buoyant force). T₂: = T₂= ? 53⁰ (a) The tension, T₂, in the cable is: Volblock 5 m water 3 m N (± 5N) T₁= 140 N (b) What is the volume of the block? Remember, the density of water is 1 g/cc. 20 kg cm³ (+5 cm³)

Name: On a distant planet, where the gravitational field strength is 10.0 N
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Description: On a distant planet, where the gravitational field strength is 10.0 N/kg, ablock of mass 20 kg hangs from the end of a 5-m fishing boon of mass 14 kg.A cable is attached to the boon two meters from the pivot at an angle of 53º.The submerged block ha

Physics for Scientists and Engineers: Foundations and Connections

1st Edition

ISBN:9781133939146

Author:Katz, Debora M.

Publisher:Katz, Debora M.

Chapter15: Fluids

Section: Chapter Questions

Problem 66PQ

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