Problem # 3: Friction losses and volumetric discharge through a water piping system The cold-water faucet in a house is fed from a main water line through the following simplified piping system: A. A 160 ft long 4 in ID copper pipe leading from the main line to the faucet base B. Six 90° standard elbows C. One wide-open angle valve with no obstruction. D. The faucet which is considered to be composed of twd parts: 1) a half-open globe valve and 2) a nozzle having a diameter of 0.10 in. in the main line is 60 psig (virtually independent of flow) and the velocity there is The pressure negligible. At the faucet, the pressure is atmospheric. Assume the density of water to be 62.4 lbm/ft and the kinematic viscosity of water is 1.22 x10-5 ft2/s. Find the maximum volumetric flow rate of discharge from the faucet. This is trial and error problem. For a first trial, assume the Fanning friction factor to be 0.007. Use 5×10° ft for copper roughness. Neglect changes in elevation throughout the system. Assume turbulent flow and a=1.0. Make sure to check all assumptions at the end of your solution. Hint: There are three velocity components to think about in the system. The first one in the main line, the second one before the nozzle, and the third one after the nozzle.
Problem # 3: Friction losses and volumetric discharge through a water piping system The cold-water faucet in a house is fed from a main water line through the following simplified piping system: A. A 160 ft long 4 in ID copper pipe leading from the main line to the faucet base B. Six 90° standard elbows C. One wide-open angle valve with no obstruction. D. The faucet which is considered to be composed of twd parts: 1) a half-open globe valve and 2) a nozzle having a diameter of 0.10 in. in the main line is 60 psig (virtually independent of flow) and the velocity there is The pressure negligible. At the faucet, the pressure is atmospheric. Assume the density of water to be 62.4 lbm/ft and the kinematic viscosity of water is 1.22 x10-5 ft2/s. Find the maximum volumetric flow rate of discharge from the faucet. This is trial and error problem. For a first trial, assume the Fanning friction factor to be 0.007. Use 5×10° ft for copper roughness. Neglect changes in elevation throughout the system. Assume turbulent flow and a=1.0. Make sure to check all assumptions at the end of your solution. Hint: There are three velocity components to think about in the system. The first one in the main line, the second one before the nozzle, and the third one after the nozzle.
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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