The Figure shows the arrangement of a circuit for a hydraulic system. The pump draws oil with a specific gravity of 0.90 from a reservoir and delivers it to the hydraulic cylinder. The cylinder has an inside diameter of 12.5 cm, and in 15 s the piston must travel 0.5 m while exerting a force of 50 kN. It is estimated that there are energy losses of 3.4 m in the suction pipe and 10.7 m in the discharge pipe. Both pipes are 1 cm Schedule 80 steel pipes. Calculate: a) The volume flow rate through the pump. b) The pressure at the cylinder. c) The pressure at the outlet of the pump. J 1.5m 0.5 in 15
The Figure shows the arrangement of a circuit for a hydraulic system. The pump draws oil with a specific gravity of 0.90 from a reservoir and delivers it to the hydraulic cylinder. The cylinder has an inside diameter of 12.5 cm, and in 15 s the piston must travel 0.5 m while exerting a force of 50 kN. It is estimated that there are energy losses of 3.4 m in the suction pipe and 10.7 m in the discharge pipe. Both pipes are 1 cm Schedule 80 steel pipes. Calculate: a) The volume flow rate through the pump. b) The pressure at the cylinder. c) The pressure at the outlet of the pump. J 1.5m 0.5 in 15
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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Transcribed Image Text:The Figure shows the arrangement of a circuit
for a hydraulic system. The pump draws oil
with a specific gravity of 0.90 from a reservoir
and delivers it to the hydraulic cylinder. The
cylinder has an inside diameter of 12.5 cm, and
in 15 s the piston must travel 0.5 m while
exerting a force of 50 kN. It is estimated that
there are energy losses of 3.4 m in the suction
pipe and 10.7 m in the discharge pipe. Both
pipes are 1 cm Schedule 80 steel pipes.
Calculate:
a) The volume flow rate through the pump.
b) The pressure at the cylinder.
c) The pressure at the outlet of the pump.
d) The pressure at the inlet to the pump.
e) The power delivered to the oil by the pump.
15m
O
P
0.5 min 15
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