Thermodynamics: An Engineering Approach 8th Edition

Published by McGraw-Hill Education
ISBN 10: 0-07339-817-9
ISBN 13: 978-0-07339-817-4

Chapter 2 - Energy, Energy Transfer, and General Energy Analysis - Problems - Page 106: 2-119E

Answer

$P_{p}=11.32kW$

Work Step by Step

Here we are working with potential energy: The potential work is: $W_{p}=mgh$ And the potential power is: $P_{p}=\frac{W_{p}}{t}=\frac{mgh}{t}=\rho Qgh$ The potential power needed is: $P_{p}=1000\frac{kg}{m^3}*(200\frac{gal}{min}*\frac{1m^3}{264.172gal}*\frac{1min}{60s})*9.81\frac{m}{s^2}*[(200ft-(-100ft))*\frac{1m}{3.28ft}]$ $P_{p}=11.32kW$
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