70. A siphon (an inverted U-tube) is used to steadily withdraw water from a large reservoir. The top of the siphon is 1.5 m higher than the surface of the water in the reservoir and the discharge side of the siphon is 8 m below the water surface. Ignore all frictional losses in the siphon. Find a) the mass flow rate of water dis- charged to the atmosphere and b) the pressure at the top of the siphon. Water is at T = 27 C and 1 atm. The diameter of the siphon tube is 5 cm. [Ans.: a) 24.6 kg/s and b) 7.86 kPa].
70. A siphon (an inverted U-tube) is used to steadily withdraw water from a large reservoir. The top of the siphon is 1.5 m higher than the surface of the water in the reservoir and the discharge side of the siphon is 8 m below the water surface. Ignore all frictional losses in the siphon. Find a) the mass flow rate of water dis- charged to the atmosphere and b) the pressure at the top of the siphon. Water is at T = 27 C and 1 atm. The diameter of the siphon tube is 5 cm. [Ans.: a) 24.6 kg/s and b) 7.86 kPa].
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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![70. A siphon (an inverted U-tube) is used to steadily withdraw water from a large
reservoir. The top of the siphon is 1.5 m higher than the surface of the water in
the reservoir and the discharge side of the siphon is 8 m below the water surface.
Ignore all frictional losses in the siphon. Find a) the mass flow rate of water dis-
charged to the atmosphere and b) the pressure at the top of the siphon. Water is at
T= 27 C and 1 atm. The diameter of the siphon tube is 5 cm. [Ans.: a) 24.6 kg/s
and b) 7.86 kPa].](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F71ab622c-b240-4a1d-8f5d-632cd88de442%2Fdc3b90bd-e51f-4fc3-b36f-0b7ab8352a4f%2F2hcdf3_processed.png&w=3840&q=75)
Transcribed Image Text:70. A siphon (an inverted U-tube) is used to steadily withdraw water from a large
reservoir. The top of the siphon is 1.5 m higher than the surface of the water in
the reservoir and the discharge side of the siphon is 8 m below the water surface.
Ignore all frictional losses in the siphon. Find a) the mass flow rate of water dis-
charged to the atmosphere and b) the pressure at the top of the siphon. Water is at
T= 27 C and 1 atm. The diameter of the siphon tube is 5 cm. [Ans.: a) 24.6 kg/s
and b) 7.86 kPa].
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