Referring to the figure below, the tank is being filled with water by two one- dimensional inlets. Air is trapped at the top of the tank. The water height is h. Compute for dh/dt if D₁ 1 in, D₂ = 3 in, V₁ = 3 ft/s, V₂ = 2 ft/s, and At = 2 ft² (tank surface area). The change in water height is obtained from the relation;
Referring to the figure below, the tank is being filled with water by two one- dimensional inlets. Air is trapped at the top of the tank. The water height is h. Compute for dh/dt if D₁ 1 in, D₂ = 3 in, V₁ = 3 ft/s, V₂ = 2 ft/s, and At = 2 ft² (tank surface area). The change in water height is obtained from the relation;
Chapter2: Loads On Structures
Section: Chapter Questions
Problem 1P
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![Referring to the figure below, the tank is being filled with water by two one-
dimensional inlets. Air is trapped at the top of the tank. The water height is h.
Compute for dh/dt if D₁ 1 in, D₂ = 3 in, V₁ = 3 ft/s, V₂ = 2 ft/s,
and At
2 ft² (tank surface area).
The change in water height is obtained from the relation;
O A
O
B
OD
OE
dh
PwAt=P₁A₁V₁ + P₂A₂V₂
A. 0.057 ft/s
B. 0.0285 ft/s
C. 0.041 ft/s
D.8.25 ft/s
E.None of the above
H
Tank area A
Fixed CS
P
P](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fc91beade-9729-4bed-93b5-a690a61abffc%2F9514d8a9-ac93-46d5-bea8-c69c11ded8e3%2Fd1di3b_processed.jpeg&w=3840&q=75)
Transcribed Image Text:Referring to the figure below, the tank is being filled with water by two one-
dimensional inlets. Air is trapped at the top of the tank. The water height is h.
Compute for dh/dt if D₁ 1 in, D₂ = 3 in, V₁ = 3 ft/s, V₂ = 2 ft/s,
and At
2 ft² (tank surface area).
The change in water height is obtained from the relation;
O A
O
B
OD
OE
dh
PwAt=P₁A₁V₁ + P₂A₂V₂
A. 0.057 ft/s
B. 0.0285 ft/s
C. 0.041 ft/s
D.8.25 ft/s
E.None of the above
H
Tank area A
Fixed CS
P
P
![The pump-turbine system in the figure draws water from the upper
reservoir in the daytime to produce power for a city. At night, it pumps
water from lower to upper reservoirs to restore the situation. For a
design flow rate of 33.4 cfs (ft³/s), the friction head loss is 17 ft.
Estimate the power in horsepower delivered by the pump (W
yQhp).
Use y = 62.4 lbf/ft³; 1 hp
A. 409.3
B. 538.1
OA
B
U
OD
7
550 ft·lbf/s)
C. 473.7
O
Water at 20°C
D. None of the above
Z, 150 ft
Pump-
turbine
1
2₂-25 ft](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fc91beade-9729-4bed-93b5-a690a61abffc%2F9514d8a9-ac93-46d5-bea8-c69c11ded8e3%2Frunzh0i_processed.jpeg&w=3840&q=75)
Transcribed Image Text:The pump-turbine system in the figure draws water from the upper
reservoir in the daytime to produce power for a city. At night, it pumps
water from lower to upper reservoirs to restore the situation. For a
design flow rate of 33.4 cfs (ft³/s), the friction head loss is 17 ft.
Estimate the power in horsepower delivered by the pump (W
yQhp).
Use y = 62.4 lbf/ft³; 1 hp
A. 409.3
B. 538.1
OA
B
U
OD
7
550 ft·lbf/s)
C. 473.7
O
Water at 20°C
D. None of the above
Z, 150 ft
Pump-
turbine
1
2₂-25 ft
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