Water is pumped from a tank (elev. 110 m) to the top
of a hill (elev. 150 m) through 1,000 m of 500-mm diameter steel
pipe (ε = 0.0003 m). The pump motor is rated at 150 kW (i.e. brake
horsepower). Assume pump efficiency of 70%.
a) Develop an equation to determine discharge flow rate by trial
and error
b) Solve equation developed in part a)
c) Briefly explain why a centrifugal pump is appropriate for this
application.
If answer is wrong thumbs down ?
Water is pumped from a tank (elev. 110 m) to the top of a hill (elev....
Water is being pumped from a lower reservoir to an elevated tank as shown below. The pump is 80% efficient and rated at 200 kW. Determine the flow rate if the total head loss from point 1 to point 2 is 15 m. elev. 100 m 150-mm diameter pipe pump 180-mm diameter pipe elev. 50 m water
Two large tanks are open to the atmosphere at the top. Water s
pumped from the lower tank to the upper tank through a single PVC
(smooth) pipe. The relationship between Velocity in the pipe (ft/s)
and the pump head (ft) is given. There are no significant minor
losses. What is the flow rate, Q (cfs), in the pipe?
Pump Coefficients 1.30 sec /ft Pipe Length Inside Pipe Diameter 300 ft 0.250 feet a = 3.24 sec b 107.00 ft...
In order to provide irrigation, water has to be pumped to
an elevation 120 m through a 600 mm pipe where the
pressure required at the higher elevation is 172 kPa. The
source of the water and the discharge point are at
atmospheric pressure. Irrigation requirements dictate
that water must be pumped at the rate of 1m3
/sec. The
loss of head due to friction and other factors is estimated
to be 2.4m. Elevation of the water source is 60...
you can skip task 1 (3) because its a code in
matlab.
Task 1: You were asked to check up the status of the water system. Water at 24 °C is to be pumped from a Lower reservoir with 100 m elevation to another reservoir at a higher elevation 112 m through 150-m-long pipe as shown in Figure (1). The pipe is made of steel, and the diameter ofthe pipe is equal to 30 cm water is to be pumped...
Storage tank 18 m Pump Water is pumped from a lake to a storage tank 18 m above at a rate of 64 L/s while consuming 21.2 kW of electric power. Disregarding any frictional losses in the pipes and any changes in kinetic energy, determine (a) the overall efficiency of the pump-motor unit and (b) the pressure difference between the inlet and the exit of the pump. b) AP- a) 1 kPa
Oil (density = 910Kg/m3 and viscosity 3.1 x10-3 Pa-s) is pumped from an open tank to a pressurized tank held at 400KPa gauge. The oil is pumped from an inlet at the side of the open tank through a line of commercial steel pipe (inside diameter 0.8m) at a rate of 5x10-3 m3/s. The length of the straight pipe is 150 m, and the pipe contains 4 (90-degree) elbows and two globe valve half open. The level of the liquid...
A liquid chemical is pumped from a storage tank open to the atmosphere, into a reactor with pressure of 2.0 atm gauge above the liquid level. The liquid density is 1200 kg/m3 and viscosity is 1.45 cP. The required volumetric flow rate is 1.25 x 103 m/s. The pipeline is 100 m long in total, made of commercial steel pipe, 2 in. size and Schedule 40. The gate valve is wide open. 10 m Reactor Calculate: (a) The discharge velocity...
4. Water is pumped from a lake to a storage tank 20 m above at a rate of 90 Ls while consuming 25.4 kW of electric power. Disregarding any frictional losses in the pipes and any changes in kinetic energy, determine (a) the overall efficiency of the pump motor unit and (b) the pressure difference between the inlet and the exit of the pump. he 20m
Task 1: You were asked to check up the status of the water system. Water at 24 °C is to be pumped from a Lower reservoir with 100 m elevation to another reservoir at a higher elevation 112 m through 150-m-long pipe as shown in Figure (1). The pipe is made of steel, and the diameter of the pipe is equal to 30 cm. Water is to be pumped by a 72% efficient motor-pump combination that draws 33 A of...
1) Water is pumped steadily through a 0.10 m diameter pipe from one closed, pressurized tank to another as shown in the figure. The pump adds 4 kW to the water and the head loss of the flow is 10 m. Determine the velocity of the water leaving the pipe. Draw energy and hydraulic grade lines. Ppupn= A(Ans= 5m/s) ar 300 kPa Tank I 35 m pa = 500 kPa 15 m Tank II DUMD 0.10 m diameter pipe