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2) Water enters a two-dimensional, square channel of constant width, h = 10 cm, with uniform velocity U = 5 m/s. The channel makes a 90° bend that distorts the flow to produce the linear velocity profile shown at the exit, with Vmax = 3 V min. If the gage pressure at the entrance is P₁G = 100 kPa and the flow at the exit discharges to atmosphere, determine the direction and magnitude of the force of the water acting on the channel.

2) Water enters a two-dimensional, square channel of constant width, h = 10 cm, with uniform velocity U = 5 m/s. The channel makes a 90° bend that distorts the flow to produce the linear velocity profile shown at the exit, with Vmax = 3 V min. If the gage pressure at the entrance is P₁G = 100 kPa and the flow at the exit discharges to atmosphere, determine the direction and magnitude of the force of the water acting on the channel.

Elements Of Electromagnetics
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
Section: Chapter Questions
Problem 1.1MA
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2) Water enters a two-dimensional, square channel of constant width, h = 10 cm, with uniform velocity U = 5 m/s. The channel makes a 90° bend that distorts the flow to produce the linear velocity profile shown at the exit, with Vmax Vmin. If the gage pressure at the entrance is P₁G = 100 kPa and the flow at the exit discharges to atmosphere, determine the direction and magnitude of the force of the water acting on the channel. 3 V. V J U ET Vmax Vm min
Transcribed Image Text:2) Water enters a two-dimensional, square channel of constant width, h = 10 cm, with uniform velocity U = 5 m/s. The channel makes a 90° bend that distorts the flow to produce the linear velocity profile shown at the exit, with Vmax Vmin. If the gage pressure at the entrance is P₁G = 100 kPa and the flow at the exit discharges to atmosphere, determine the direction and magnitude of the force of the water acting on the channel. 3 V. V J U ET Vmax Vm min
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