Performance Evaluation and SWOT Analysis of Solar Powered Vapour Absorption Refrigeration System
Keywords:
Vapor Absorption System, Lithium BromideAbstract
The solar cooling absorption system requires more research because of its poor COP. So, the study examined the performance of specific effect lithium bromide water (LiBr-H20) absorption system of cooling with 15 kW solar power. Space heating modes were also examined and improved methods were analyzed and discussed. The Vapor Absorption Machine (VAM) uses the LiBr-water solution to generate absorbent - refrigerant pair. The absorption system of cooling was operated by a trough collector of parabolic type of 36 sq m aperture are and 325 sq. feet was used to cool the meeting room. The results of the research show that For Parabolic Trough Collector maximum solar radiation was 954.86 W/m2 and the minimum solar radiation was 507.52 W/m2. The average COP of Parabolic Trough Collector was 0.46 and for absorption Refrigeration System the average COP calculated was 0.47.
How to cite this article:
Goswami N, Kumar J, Juneja D et al. Performance Evaluation and SWOT Analysis of Solar Powered Vapour Absorption Refrigeration System. J Adv Res Mech Engi Tech 2021; 8(2): 1-6.
References
Mazloumi M, Naghashzadegan K, Javaherdeh. Simulation of solar lithium bromide-water absorption cooling system with parabolic trough collecto. Energy Conversion and Management 2008; 49: 2820-2832.
Li, Chengmu Xu, Yongfeng X, Zhuang B et al. Experimental investigation on the performance of a solar powered lithium bromide–water absorption cooling system.
International Journal of Refrigeration 71: 46-59.
Ghaddar M, Shihab F Bdier. Modeling and simulation of solar absorption system performance in beirt. S0960-1481(96): 0039-0.
Singh M, Jindal S, Gupta A et al. Numerical Analysis of Soil-Water Flow in Fixed Horizontal Pipe. International Journal of Theoretical and Applied Mechanics 12(3): 533-541.
Arivazhagan S, Saravanan R, Renganarayanan S. Experimental studies on HFC based two-stage half effect vapour absorption cooling system. Applied Thermal Engineering 26: 1455-1462.
Kurem E, Horuz I. A Comparision between Ammonia-Water and Water-Lithium Bromide Solution in absorption heat transformers heat transformers. Heat Mass Transfer 28(3): 421-438.
Misra RD, Sahoo PKS, Gupta SA. Thermoeconomic optimization of a single effect water/ LiBr vapour absorption refrigeration system. International Journal of Refrigeration 26: 158-169.
Adewusi SA, Zubair SM. Second law based thermodynamic analysis of ammonia-water absorption systems. Energy Conversion and Management 2004; 45: 2355-2369.
Kaushik SC, Arora A. Energy and exergy analysis of single effect and series flow double effect water–lithium bromide absorption refrigeration systems. International Journal of Refrigeration 32: 1247-1258.
Yin H, Qu M, Archer D. Model based experimental performance analysis of amicro scale LiBr-H2O steamdriven double-effect absorption Chiller. Applied Thermal Engineering 2010; 30: 1741-1750.
Xu SM, Huang XD, Du R. An investigation of the solar powered absorption refrigeration system with advanced energy storage technology. Solar Energy 2011; 85: 1794-1804.
Darkwa J, Fraser S, Chow DHC. Theoretical and practical analysis of an integrated solar hot water-powered absorption cooling system. Energy Journal 2012; 39: 395-402.
Ketjoy N, Yongphayoon R, Mansiri K. Performance evaluation of 35 kW LiBr-H2O solar absorption cooling system in Thailand. Energy Procedia 2013; 34: 198-210.
Vazhappilly CV, Tharayil T, Nagarajan AP. Modeling and Experimental Analysis Of Generator In Vapour Absorption Refrigeration System. Int Journal of Engineering Research and Applications. 2013; 3(5): 63-67.
Majdi HS. Performance evaluation of combined ejector LiBr-H2O absorption cooling cycle. Case Studies in Thermal Engineering 2016; 7: 25-35.
Mishra RS, Dwivedi A. Methods for improving thermal performances of vapour absorption system using heat pipes. International Journal of Research in Engineering and Innovation 2017; 1(3): 118-125.
Prasartkaew B. Performance Test of a Small Size LiBr-H2O Absorption Chiller. Energy Procedia 56: 487-497.
Lu ZS, Wang RZ. Experimental performance investigation of small solar air-conditioning systems with different kinds of collectors and chillers. Solar Energy 2014; 110: 7-14.
Shukla A, Mishra A,Shukla D et al. C.O.P Derivation and thermodynamic calculation of Ammonia-Water Vapor Absorption Refrigeration. 2015; 6(5): 72-81.
Kizilkan O, Kabul A, Dincer I. Development and performance assessment of a parabolic trough solar collector-based integrated system for an ice-cream factory. Energy 2016; 100: 167-176.