Water flows at a rate of 2.4f * t ^ 3 / s in an old, rusty 7.8-in.-diameter pipe that has a relative roughness of 0.010. It is proposed that by inserting a smooth plastic liner with an inside diameter of 7.0 in. into the old pipe as shown in the Figure the pressure drop per mile can be reduced. Is it true that the lined pipe can carry the required 2.4f * t ^ 3 / s at a lower pressure drop than in the old pipe?
Water flows at a rate of 2.4f * t ^ 3 / s in an old, rusty 7.8-in.-diameter pipe that has a relative roughness of 0.010. It is proposed that by inserting a smooth plastic liner with an inside diameter of 7.0 in. into the old pipe as shown in the Figure the pressure drop per mile can be reduced. Is it true that the lined pipe can carry the required 2.4f * t ^ 3 / s at a lower pressure drop than in the old pipe?
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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Water flows at a rate of 2.4f * t ^ 3 / s in an old, rusty 7.8-in.-diameter pipe that has a relative roughness of 0.010. It is proposed that by inserting a smooth plastic liner with an inside diameter of 7.0 in. into the old pipe as shown in the Figure the pressure drop per mile can be reduced. Is it true that the lined pipe can carry the required 2.4f * t ^ 3 / s at a lower pressure drop than in the old pipe?

Transcribed Image Text:**Pressure Drop and Pipe Flow**
Pressure drop is a function of flow rate and roughness.
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**Mean Velocity Calculation for a 7.0-inch Diameter Pipe:**
- \( V_0 = 8.93 \) ft/s
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**Reynolds Number Calculation for the 7.0-inch Diameter Pipe:**
- \( Re = 43300 \)
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**Friction Factor for the 7.0-inch Diameter Pipe:**
- \( f_0 = 0.0134 \)
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**Pressure Drop Per Mile for the 7.0-inch Diameter Pipe:**
- \( \Delta p_0 = 0.0288 \) psi/mile
---
Each of these calculations is crucial for determining the flow characteristics and pressure loss in a pipeline system.
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