Shown below is the water jet flow from a pressurized closed tank. The vertical distance between free surface and the jet nozzle is .   The vertical distance between the highest point of the water jet and the jet nozzle is  . The flow is steady and no energy loss is involved. The acceleration due to gravity is . The water's specific gravity is . Find the velocity at point 2 ________  A. 17.2 m/s  B. 16.0 m/s  C. 255.05 m/s  D. 294.3 m/s

Elements Of Electromagnetics
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ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
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Shown below is the water jet flow from a pressurized closed tank. The vertical distance between free surface and the jet nozzle is .   The vertical distance between the highest point of the water jet and the jet nozzle is  . The flow is steady and no energy loss is involved. The acceleration due to gravity is . The water's specific gravity is . Find the velocity at point 2 ________

 A.

17.2 m/s

 B.

16.0 m/s

 C.

255.05 m/s

 D.

294.3 m/s

Shown below is the water jet flow from a pressurized closed tank. The vertical distance between free surface and the jet nozzle is h₁ = 13.0m. The
vertical distance between the highest point of the water jet and the jet nozzle is h₂ = 15.0m. The flow is steady and no energy loss is involved. The
acceleration due to gravity is g = 9.81m/s². The water's specific gravity is y=9.81kN/m³. Find the velocity V₂at point 2_
Pair
h2
h1
A. 17.2 m/s
B. 16.0 m/s
O C. 255.05 m/s
O D. 294.3 m/s
N
Transcribed Image Text:Shown below is the water jet flow from a pressurized closed tank. The vertical distance between free surface and the jet nozzle is h₁ = 13.0m. The vertical distance between the highest point of the water jet and the jet nozzle is h₂ = 15.0m. The flow is steady and no energy loss is involved. The acceleration due to gravity is g = 9.81m/s². The water's specific gravity is y=9.81kN/m³. Find the velocity V₂at point 2_ Pair h2 h1 A. 17.2 m/s B. 16.0 m/s O C. 255.05 m/s O D. 294.3 m/s N
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