FROM BOOK: ENGINEERING THERMOFLUIDS, M. MASSOUD 49. Water flows at a rate of 200 GPM into a piping system connected in series.Length, diameter, and loss coefficient of each pipe are given below. For p= 62.4Ibm/ft and u = 0.7E–3 lbm ft/s find total pressure drop and the diameter of anequivalent pipe representing this system.C) Fluid Power Theory an..IndPitEnIlIb. Fluid Mechanics: Incompressible Viscous Flow392PipeDKNo.(ft)100.00(in)5.00(-)50.001280.004.5045.00370.004.0065.004120.003.5055.00590.003.0015.00 [Ans.:Flow In Serial PipesPipeNo.LDAVKRefΔΡ(fi)(in)(ft')(ft/s)(-)x IE-6(-)(psi)GPM1005.000.1363.2750.002000.1210.01770 3.900.01733 5.332804.500.1104.055.1245.00 20065.00 20055.000.1350.1520.173 0.01648 18.490.202 0.01598 11.510.0870.0673704.000.01693 12.0341203.506.6520059015.00 2003.000.0499.09Data For The Equivalent Pipe Representing The Compound Piping SystemL (ft)ΔΡ(psi)D (in)A (ft')V (f/s)K(-)V (GPM) 1 (ft"')491.483.060.0835.37233.02 200.005159.0651.3].

Since, pressure drop calculations and equivalent pipe diameter calculations are two different…

49. Water flows at a rate of 200 GPM into a piping system connected in series. Length, diameter, and loss coefficient of each pipe are given below. For p= 62.4 Ibm/ft° and µ = 0.7E-3 Ibm ft/s find total pressure drop and the diameter of an equivalent pipe representing this system.

49. Water flows at a rate of 200 GPM into a piping system connected in series. Length, diameter, and loss coefficient of each pipe are given below. For p= 62.4 Ibm/ft° and µ = 0.7E-3 Ibm ft/s find total pressure drop and the diameter of an equivalent pipe representing this system.

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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