ANN approach for irreversibility analysis of vapor compression refrigeration system using R134a/LPG blend as replacement of R134a

被引:0
作者
Jatinder Gill
Jagdev Singh
Olayinka S. Ohunakin
Damola S. Adelekan
机构
[1] IKGPTU,Department of Mechanical Engineering
[2] BCET Gurdaspur,Faculty of Mechanical Engineering Department
[3] Covenant University,The Energy and Environment Research Group (TEERG), Mechanical Engineering Department
来源
Journal of Thermal Analysis and Calorimetry | 2019年 / 135卷
关键词
R134a/LPG; ANN; Total irreversibility; Irreversibility in VCRS components; Second law efficiency;
D O I
暂无
中图分类号
学科分类号
摘要
This paper experimentally evaluated the irreversibility in the components (compressor, condenser, capillary tube, and evaporator) of the vapor compression refrigeration system (VCRS) using R134a/LPG refrigerant as a replacement for R134a. For this aim, different tests were conducted for various evaporator and condenser temperatures under controlled surrounding conditions. The results reported that the irreversibilities in the components of VCRS using R134a/LPG blend were found lesser than irreversibilities in the components of VCRS using R134a under similar experimental conditions. Artificial neural network (ANN) models were developed to predict the second law of efficiency and total irreversibility of the refrigeration system. ANN and ANFIS model predictions were also compared with experimental results and an absolute fraction of variance in range of 0.980–0.994 and 0.951–0.977, root-mean-square error in the range of 0.1636–0.2387 and 0.2501–0.4542 and mean absolute percentage error in the range of 0.159–0.572 and 0.308–0.931%, respectively, were estimated. The outcomes suggested that ANN model shows better statistical prediction than ANFIS model.
引用
收藏
页码:2495 / 2511
页数:16
相关论文
共 105 条
[1]  
Buzelin LOS(2005)Experimental development of an intelligent refrigeration system Int J Refrig 28 165-175
[2]  
Amico SC(2017)Hydrocarbons and their mixtures as alternatives to environmental unfriendly halogenated refrigerants: an updated overview Renew Sustain Energy Rev 73 1247-1264
[3]  
Vargas JVC(2016)Performance improvement of vapor compression cooling systems using evaporative condenser: an overview Renew Sustain Energy Rev 58 347-360
[4]  
Parise JAR(2017)Energetic and exergetic performance analysis of the vapor compression refrigeration system using adaptive neuro-fuzzy inference system approach Exp Thermal Fluid Sci 88 246-260
[5]  
Harby K(2007)Thermoeconomic analysis of household refrigerators Int J Energy Res 31 947-959
[6]  
Harby K(2008)Performance and Energetic analysis of vapor compression refrigeration system with an internal heat exchanger using a hydrocarbon, isobutane (R600a) Int J Energy Res 32 824-836
[7]  
Gebaly DR(2010)Thermodynamic performance analysis of R-600 and R-600a as a refrigerant Eng E-Trans 5 11-18
[8]  
Koura NS(2010)Experimental study of R152a and R32 to replace R134a in a domestic refrigerator Energy 35 3793-3798
[9]  
Hassan MS(2014)Exergy analysis of refrigeration systems using an alternative refrigerant (hfo-1234yf) to R-134a Int J Low-Carbon Technol 9 56-62
[10]  
Gill J(2014)Exergy analysis of a domestic refrigerator using eco-friendly R290/R600a refrigerant mixture as an alternative to R134a J Therm Anal Calorim 115 933-940