Refrigerant 13ka enters the Candlenser ofaccfrigerationcycle al fa2kpa and 6odndheavessubceroted by sseThe refiyerantis candensed byg vejectinglitsexperiencesaDelerminethe vate aff hent rejectedinthe Gndlathe mass Slow Yale f water) the crep f thes pefrigeratien cyelefooling loaedat thisewith a ftow cate ofo.95 kg/sat the Samepressureheatwaterwhichtempreaturerise f eCandifins is

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Refrigerant 134a enters the condenser of arefrigeration cycle at Sookpa and bod with a flow rate of 0.095 kg/s and leaves Subcooled by 3.30² at the same Pressure The refrigerant is condensed by rejecting its heat which experiences a Determine te repreature rise of 11 c of the rate of heat rejected in the condenser b) the mass flow rate of water c) the coop of this refrigeration cycle Fooling load at these Conditions is 12 kw it the

Refrigerant 134a enters the condenser of arefrigeration cycle at Sookpa and bod with a flow rate of 0.095 kg/s and leaves Subcooled by 3.30² at the same Pressure The refrigerant is condensed by rejecting its heat which experiences a Determine te repreature rise of 11 c of the rate of heat rejected in the condenser b) the mass flow rate of water c) the coop of this refrigeration cycle Fooling load at these Conditions is 12 kw it the

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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Figure on the right provides steady-state operatingdata for an ideal vapor-compression refrigeration cycle withRefrigerant 134a as the working fluid. The mass flow rate ofrefrigerant is 30.59 lb/min. Sketch the T–s diagram for thecycle and determinea) the compressor power, in horsepower.b) the rate of heat transfer, from the working fluid passingthrough the condenser, in Btu/min.c) the coefficient of performance.
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