The system shown is at steady state, steady flow. At inlet 1, the rates of kineticenergy, potential energy and enthalpy entering the system are: KE1 = 0.10 kW, PE1%3D0.22 kW, and H1 = 27.0 kW. At inlet 2, the rates are: KE2 = 0.23 kW, PE2 = 0.18 kW,and H2 = 18.0 kVW. At exit 3, the rates are: KE3 = 0.52 kW, PE3 = 0.28 kW, and H3 =7.0 kW. If the system gives up 5.0 kW of heat to the surroundings, what is the rate ofwork transfer of the system? Express the answer in kw.%3DKE3PE31KE.РЕH.KE2PE2НаControl volumeboundary

Solution is given below: The question will be solved using steady flow energy equation (SFEE)…

nergy, potential energy and enthalpy entering the system are: KE1 = 0.10 kW, PE, = %3D %3D .22 kW, and H1 = 27.0 kW. At inlet 2, the rates are: KE2 = 0.23 kW, PE2 = 0.18 kW, nd H2 = 18.0 kW. At exit 3, the rates are: KE3 = 0.52 kW, PE3 = 0.28 kW, and H3 = .O kW. If the system gives up 5.0 kW of heat to the surroundings, what is the rate of vork transfer of the system? Express the answer in kW. KE3 PE3 KE, PE, KE2 PE2 H2 LControl volume boundary

nergy, potential energy and enthalpy entering the system are: KE1 = 0.10 kW, PE, = %3D %3D .22 kW, and H1 = 27.0 kW. At inlet 2, the rates are: KE2 = 0.23 kW, PE2 = 0.18 kW, nd H2 = 18.0 kW. At exit 3, the rates are: KE3 = 0.52 kW, PE3 = 0.28 kW, and H3 = .O kW. If the system gives up 5.0 kW of heat to the surroundings, what is the rate of vork transfer of the system? Express the answer in kW. KE3 PE3 KE, PE, KE2 PE2 H2 LControl volume boundary

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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