C3 (1). A single-acting reciprocating pump has a bore of 162 mm and a stroke of 350 mm. When the pump runs at 54 rpm, it discharges 3.9 liters per second under a total head of 16 m.Determine (i) the theoretical discharge in m/s (i). the actual power required in Watts, (i) the coefficient of discharge and (iv) the delivery head, if the suction head is 4.8 m. Take the density ofwater= 1000kg/m g=9.81 m/s? ) the theoretical discharge in m3/s(1). the actual power is required in WattsGii), the coefficient of discharge(iv) the delivery head in meter

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C3 (). A single-acting reciprocating pump has a bore of 162 mm and a stroke of 350 mm. When the pump runs at 54 rpm, it discharges 3.9 liters per second under a total head of 16 m. Determine (0) the theoretical discharge in m/s (). the actual power required in Watts, (ii). the coefficient of discharge and (v) the delivery head, if the suction head is 4.8 m. Take the density of water- 1000kg/m g-9.81 m/s

C3 (). A single-acting reciprocating pump has a bore of 162 mm and a stroke of 350 mm. When the pump runs at 54 rpm, it discharges 3.9 liters per second under a total head of 16 m. Determine (0) the theoretical discharge in m/s (). the actual power required in Watts, (ii). the coefficient of discharge and (v) the delivery head, if the suction head is 4.8 m. Take the density of water- 1000kg/m g-9.81 m/s

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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