A stream with Q = 8 m3/s Flow rate is passed through the turbine by means of a pressure pipe. its velocity at the entrance of the pipe V1 = 4 m/s, the exit velocity from the pipe at the point where it is released back into the stream after the turbine is V2= 1 m/s. The height of drop between the inlet and outlet of the pipe is 80 m and the energy converted to heat is 10 m inside the pressure pipe , determine the energy transferred to the turbine and the theoretical strength of turbine.
A stream with Q = 8 m3/s Flow rate is passed through the turbine by means of a pressure pipe. its velocity at the entrance of the pipe V1 = 4 m/s, the exit velocity from the pipe at the point where it is released back into the stream after the turbine is V2= 1 m/s. The height of drop between the inlet and outlet of the pipe is 80 m and the energy converted to heat is 10 m inside the pressure pipe , determine the energy transferred to the turbine and the theoretical strength of turbine.
Refrigeration and Air Conditioning Technology (MindTap Course List)
8th Edition
ISBN:9781305578296
Author:John Tomczyk, Eugene Silberstein, Bill Whitman, Bill Johnson
Publisher:John Tomczyk, Eugene Silberstein, Bill Whitman, Bill Johnson
Chapter3: Refrigeration And Refrigerants
Section: Chapter Questions
Problem 31RQ: Define a near-azeotropic refrigerant blend, and give twoexamples.
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A stream with Q = 8 m3/s Flow rate is passed through the turbine by means of a pressure pipe. its velocity at the entrance of the pipe V1 = 4 m/s, the exit velocity from the pipe at the point where it is released back into the stream after the turbine is V2= 1 m/s. The height of drop between the inlet and outlet of the pipe is 80 m and the energy converted to heat is 10 m inside the pressure pipe , determine the energy transferred to the turbine and the theoretical strength of turbine.
Transcribed Image Text:80m
presurised
tube
stream
turbine
stream
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