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1.) Soybean oil is being pumped through a uniform- diameter pipe at a steady mass flow rate. A pump supplies 209.2 J/kg mass of fluid flowing. The entrance absolute pressure in the inlet pipe to the pump is 103.4 kN/m^2. The exit section of the pipe downstream from the pump is 3.35 m above the entrance and the exit pressure is 172.4 kN/m^2. Exit and entrance pipes are the same diameter. The fluid is turbulent flow. Calculate the friction loss in the system. The temperature is 303K. Density of soy bean oil = 919 kg/m3.

1.) Soybean oil is being pumped through a uniform- diameter pipe at a steady mass flow rate. A pump supplies 209.2 J/kg mass of fluid flowing. The entrance absolute pressure in the inlet pipe to the pump is 103.4 kN/m^2. The exit section of the pipe downstream from the pump is 3.35 m above the entrance and the exit pressure is 172.4 kN/m^2. Exit and entrance pipes are the same diameter. The fluid is turbulent flow. Calculate the friction loss in the system. The temperature is 303K. Density of soy bean oil = 919 kg/m3.

Introduction to Chemical Engineering Thermodynamics
Introduction to Chemical Engineering Thermodynamics
8th Edition
ISBN:9781259696527
Author:J.M. Smith Termodinamica en ingenieria quimica, Hendrick C Van Ness, Michael Abbott, Mark Swihart
Publisher:J.M. Smith Termodinamica en ingenieria quimica, Hendrick C Van Ness, Michael Abbott, Mark Swihart
Chapter1: Introduction
Section: Chapter Questions
Problem 1.1P
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required drawing of problem and show your complete solution and formula provided in pic thanks.
2x 1) + P2_P1 P (V¾ av − U² av) + G(Z₂ − Z₁) + + Σ F + W = 0 Unit for formula (SI) v=m/s, g= 9.81m/s^2, z=m, P= Pa, p = kg/m^3, F=Ws=J/kg
Transcribed Image Text:2x 1) + P2_P1 P (V¾ av − U² av) + G(Z₂ − Z₁) + + Σ F + W = 0 Unit for formula (SI) v=m/s, g= 9.81m/s^2, z=m, P= Pa, p = kg/m^3, F=Ws=J/kg
1.) Soybean oil is being pumped through a uniform- diameter pipe at a steady mass flow rate. A pump supplies 209.2 J/kg mass of fluid flowing. The entrance absolute pressure in the inlet pipe to the pump is 103.4 kN/m^2. The exit section of the pipe downstream from the pump is 3.35 m above the entrance and the exit pressure is 172.4 kN/m^2. Exit and entrance pipes are the same diameter. The fluid is turbulent flow. Calculate the friction loss in the system. The temperature is 303K. Density of soy bean oil = 919 kg/m3.
Transcribed Image Text:1.) Soybean oil is being pumped through a uniform- diameter pipe at a steady mass flow rate. A pump supplies 209.2 J/kg mass of fluid flowing. The entrance absolute pressure in the inlet pipe to the pump is 103.4 kN/m^2. The exit section of the pipe downstream from the pump is 3.35 m above the entrance and the exit pressure is 172.4 kN/m^2. Exit and entrance pipes are the same diameter. The fluid is turbulent flow. Calculate the friction loss in the system. The temperature is 303K. Density of soy bean oil = 919 kg/m3.
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