50 m EML3015C Thermal-Fluid I Fall 2000 Homework 4

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Presentation transcript:

50 m EML3015C Thermal-Fluid I Fall 2000 Homework 4 1. A pump transfers water from one reservoir to another as shown. The total frictional loss of the piping is given as KL(V2/2g) where V is the averaged velocity in the pipe. The total head provided by the pump ,H, is a function of the volume flow rate, Q, as given by H=100-50*Q, where H in m of water, Q in m3/s. If the loss coefficient KL=10 and the pipe diameter is 0.1 m, what is the flow rate pumped to to the upper reservoir. 50 m pump

2. Water flows into a hydraulic turbine at 10 m3/s and a pressure of 100 kPa through a 0.5 m diameter pipe. The turbine discharge into a 0.8 m dia. pipe with a pressure of 50 kPa. If it is known that the turbine produces 2000 hp, determine the power loss between the two sections. Q1=10 m3/s, D1=0.5 m pipe p1=100 kPa 5 m 2000 hp D2=0.8 m P2=50 kPa