A venturi meter with a 1.0 in. diameter throat is mounted in a 2.0 in. diameter pipe carrying water (p = 63.36 lbm/ft', µ = 7.536 × 10 Ibm/ft-s). The pressure drop across the venturi is measured using a mercury U-tube manometer (SG 13.55) is determined to be 5.0 in. Hg. Assume the venturi discharge coefficient CD = 0.98. Consider the following: %3D %3D i) Determine the pressure drop across the venturi meter (lbf/ft'). ii) Calculate the volume flow rate in the pipe (ft’/s).

A venturi meter with a 1.0 in. diameter throat is mounted in a 2.0 in. diameter pipe carrying water (p = 63.36 lbm/ft', µ = 7.536 × 10 Ibm/ft-s). The pressure drop across the venturi is measured using a mercury U-tube manometer (SG 13.55) is determined to be 5.0 in. Hg. Assume the venturi discharge coefficient CD = 0.98. Consider the following: %3D %3D i) Determine the pressure drop across the venturi meter (lbf/ft'). ii) Calculate the volume flow rate in the pipe (ft’/s).

Name: A venturi meter with a 1.0 in. diameter throat is mounted in a 2.0 in
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Description: A venturi meter with a 1.0 in. diameter throat is mounted in a 2.0 in. diameter pipecarrying water (p = 63.36 lbm/ft', u= 7.536 x 10 lbm/ft-s). The pressure dropacross the venturi is measured using a mercury U-tube manometer (SG = 13.55) isdetermine

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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