A pipe system transmits water at 20 °C from a tank 1 to tank 2 as shown. The pipe head loss coefficients are fl = 0.025 for the bigger diameter pipe and f2 = 0.035 for the smaller diameter pipe. The loss coefficient in each bend is K, = 0.4, the 100 m loss in the pipe entrance is K. = 0.5 and the loss in the contraction Ke = 0.3. Neglect the losses at the smaller pipe exit. All pipes are made of galvanized iron. i) - Elevation = 140 m Elevation = 105 m Water y= 250 m 4=100 m D-20cm Elevation l-Elevation = 95 m Tank 1 q- 15cm Determine the flow rate in the pipes? State your assumptions and justify if Elevation = 40 m Elevation = 35 m - Elevation = 30 m necessary. If the exit of the smaller pipe is located at the bottom of Tank 2 (i.e elevation = 30 m), do you think the flow rate will remain the same? Explain. Are there any vacuum regions in the pipe system? If yes, indicate them. ii) Tank 2 iii)
A pipe system transmits water at 20 °C from a tank 1 to tank 2 as shown. The pipe head loss coefficients are fl = 0.025 for the bigger diameter pipe and f2 = 0.035 for the smaller diameter pipe. The loss coefficient in each bend is K, = 0.4, the 100 m loss in the pipe entrance is K. = 0.5 and the loss in the contraction Ke = 0.3. Neglect the losses at the smaller pipe exit. All pipes are made of galvanized iron. i) - Elevation = 140 m Elevation = 105 m Water y= 250 m 4=100 m D-20cm Elevation l-Elevation = 95 m Tank 1 q- 15cm Determine the flow rate in the pipes? State your assumptions and justify if Elevation = 40 m Elevation = 35 m - Elevation = 30 m necessary. If the exit of the smaller pipe is located at the bottom of Tank 2 (i.e elevation = 30 m), do you think the flow rate will remain the same? Explain. Are there any vacuum regions in the pipe system? If yes, indicate them. ii) Tank 2 iii)
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
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![A pipe system transmits water at 20 °C from a
tank 1 to tank 2 as shown. The pipe head loss
coefficients are fl = 0.025 for the bigger diameter
pipe and f2 = 0.035 for the smaller diameter pipe.
The loss coefficient in each bend is K, = 0.4, the 100 m
loss in the pipe entrance is K. = 0.5 and the loss
in the contraction Ke = 0.3. Neglect the losses at
the smaller pipe exit. All pipes are made of
galvanized iron.
i)
- Elevation = 140 m
Elevation = 105 m
Water
y= 250 m
4=100 m
D-20cm
Elevation
l-Elevation = 95 m
Tank 1
q- 15cm
Determine the flow rate in the pipes?
State your assumptions and justify if
Elevation = 40 m
Elevation = 35 m
- Elevation = 30 m
necessary.
If the exit of the smaller pipe is
located at the bottom of Tank 2 (i.e
elevation = 30 m), do you think the
flow rate will remain the same? Explain.
Are there any vacuum regions in the pipe system? If yes, indicate them.
ii)
Tank 2
iii)](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F77dc5827-9bef-4b7e-8b0e-59315e966a2d%2Fcdd6c702-c8a7-4706-9fd2-1d59882b1ee4%2F3p1nbha_processed.png&w=3840&q=75)
Transcribed Image Text:A pipe system transmits water at 20 °C from a
tank 1 to tank 2 as shown. The pipe head loss
coefficients are fl = 0.025 for the bigger diameter
pipe and f2 = 0.035 for the smaller diameter pipe.
The loss coefficient in each bend is K, = 0.4, the 100 m
loss in the pipe entrance is K. = 0.5 and the loss
in the contraction Ke = 0.3. Neglect the losses at
the smaller pipe exit. All pipes are made of
galvanized iron.
i)
- Elevation = 140 m
Elevation = 105 m
Water
y= 250 m
4=100 m
D-20cm
Elevation
l-Elevation = 95 m
Tank 1
q- 15cm
Determine the flow rate in the pipes?
State your assumptions and justify if
Elevation = 40 m
Elevation = 35 m
- Elevation = 30 m
necessary.
If the exit of the smaller pipe is
located at the bottom of Tank 2 (i.e
elevation = 30 m), do you think the
flow rate will remain the same? Explain.
Are there any vacuum regions in the pipe system? If yes, indicate them.
ii)
Tank 2
iii)
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