Using R134a as the working fluid and the operating conditions below. Consider the rig without a regenerator (state 7) where the flow goes directly from the compressor (state 1) to heat exchanger 3 (state 4), then calculate the following: thermal efficiency of the cycle net power output rate of heat transfer to the refrigerant in every heat exchanger rate of heat transfer from refrigerant to the cooling water in the condenser the mass flow rate of cooling water in the condenser Tturbine inlet (oC) = 170 Pheat exchange (bar) = 35 Pcondenser (bar) = 10 ηturbine(%) = 72 Mass Flow Raterefrigerator (kg/s) = 78 ηcompressor (%) = 0.15 Tw, condition in (oC) = 10 Tw, condition out (oC) = 20
Using R134a as the working fluid and the operating conditions below. Consider the rig without a regenerator (state 7) where the flow goes directly from the compressor (state 1) to heat exchanger 3 (state 4), then calculate the following: thermal efficiency of the cycle net power output rate of heat transfer to the refrigerant in every heat exchanger rate of heat transfer from refrigerant to the cooling water in the condenser the mass flow rate of cooling water in the condenser Tturbine inlet (oC) = 170 Pheat exchange (bar) = 35 Pcondenser (bar) = 10 ηturbine(%) = 72 Mass Flow Raterefrigerator (kg/s) = 78 ηcompressor (%) = 0.15 Tw, condition in (oC) = 10 Tw, condition out (oC) = 20
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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Using R134a as the working fluid and the operating conditions below. Consider the rig without a regenerator (state 7) where the flow goes directly from the compressor (state 1) to heat exchanger 3 (state 4), then calculate the following:
- thermal efficiency of the cycle
- net power output
- rate of heat transfer to the refrigerant in every heat exchanger
- rate of heat transfer from refrigerant to the cooling water in the condenser
- the mass flow rate of cooling water in the condenser
Tturbine inlet (oC) = 170
Pheat exchange (bar) = 35
Pcondenser (bar) = 10
ηturbine(%) = 72
Mass Flow Raterefrigerator (kg/s) = 78
ηcompressor (%) = 0.15
Tw, condition in (oC) = 10
Tw, condition out (oC) = 20
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