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Recovery of Engine Waste Heat for Reutilization in Air

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Recovery of Engine Waste Heat for Reutilization in Air ( recovery-engine-waste-heat-reutilization-air )

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Recovery of Engine Waste Heat for Reutilization in Air Conditioning System in an Automobile: An Investigation 88 Choi, D.K., Domanski, P.A., Didion, D.A., 1996. Evaluation of flammable refrigerants for use in a water-to-water residential heat pump. In: Proceedings of the IIR Conference on Applications for Natural Refrigerants, Aarhus, Denmark, pp 467– 476. 89 Chang, Y.S.,Kim, M.S., Ro, S.T., 1996. Performance and heat transfer of hydrocarbon refrigerants and their mixtures in a heat pump system. In: Proceedings of the IIR Conference on Applications for Natural Refrigerants, Aarhus, Denmark, pp. 477– 486. 90 Pelletier, O., Palm, B., 1996. Performance of plate heat exchangers and compressor in a domestic heat pump using propane. In: Proceedings of the IIR Conference on Applications for Natural Refrigerants, Aarhus, Denmark, pp. 497–506. 91 Payne, W.V., Domanski, P.A., Muller, J., 1998. A study of a water to- water heat pump using flammable refrigerants. In: Proceedings of the IIR- Gustav Lorentzen Conference on in Natural Working Fluids, 2-5 June, Oslo, Norway, pp. 658–667. 92 Stene, J., 2002. Investigation of a residential brine- water CO2 heat pump for combined low- temperature space heating and hot water preparation 2002. In: Proceedings of the Fifth IIR Gustav Lorentzen Conference on Natural Working Fluids, Guangzhou, China, pp. 268–275. 93 Yanagisawa, T., Fukuta, M., Ogura, N., Kaneo, H., 2004. Operating characteristics of natural circulating CO2 secondary loop refrigeration system working with NH3 primary loop. In: Proceedings of the Sixth IIR-Gustav Lorentzen Conference on Natural Working Fluids, Glasgow, United Kingdom, August 29– September 1. 94 Mani, K., Selladurai, V., 2008. Experimental analysis of a new refrigerant mixture as drop-in replacement for CFC12 and HFC134a. Int. J. Thermal Sciences 47, 1490–1495. 95 Dentis, L., Mannoni, A., Parrino, M., 1999. HC refrigerants: an ecological solution for automotive a/c systems. In: Vehicle Thermal Management of Systems Conference Proceedings, London, UK, pp. 133–147. 96 Ghodbane, M., 2000. On vehicle performance of a secondary loop a/c system. In: SAE 2000 World Congress, Detroit, Michigan. 97 Srikhirin P, Aphornratana S, Chungpaibulpatana S. A review of absorption refrigeration technologies. Renew Sustain Energy Rev 2001;5(4): 343–72. 98 Perez-Blanco H. Conceptual design of a high- efficiency absorption cooling cycle. Int J Refrig 1993;16(6):429–33. 99 Zhai XQ, Wang RZ, Wu JY, Dai YJ, Ma Q. Design and performance of a solar powered air- conditioning system in a green building. Appl Energy 2008; 85:297–311. 100 Zhai H, Daí YJ, Wu JY, Wang RZ. Energy and exergy analyses on a novel hybrid solar heating, cooling and power generation system for remote areas. Appl Energy 2009;86: 1395–404. 101 Horuz I, Callander TMS. Experimental investigation of a vapour absorption refrigeration system. Int J Refrig 2004;27(1):10–6. 102 Varani CMR. Energy and exergy evaluation of a water–lithium bromide absorption refrigeration unit using natural gas. D.Sc. Thesis. João Pessoa, Brazil: Federal University of Paraíba; 2001. 103 Maidment GG, Zhao X, Riffat SB. Combined cooling and heating using a gas engine in a supermarket. Appl Energy 2001;68:321–35. 104 Horuz I. A comparison between ammonia–water and water–lithium bromide solutions in vapour absorption refrigeration systems. Int. Common Heat Mass Transfer 1998; 25(5):711–21. 105 Chuaa HT, Toh HK, Ngb KC. Thermodynamic modeling of an ammonia–water absorption chiller. Int J Refrig 2002;25(7):896–906. 106 Lazarrin RM, Gasparella A, Longo GA. Ammonia– water absorption machines for refrigeration: theoretical and real performances. Int J Refrig 1996;19(4):239–46. 107 Wu C, Schulden WH. Maximum obtainable specific power of high-temperature waste heat engines. Heat Recov Syst CHP 1995;15(1):13–7. 108 Koehler J, Tegethoff WJ, Westphalen D, Sonnekalb M. Absorption refrigeration system for mobile applications utilizing exhaust gases. Heat Mass Transfer 1997;32:333–40. 109 Zhao Y, Shigang Z, Haibe Z. Optimization study of combined refrigeration cycles driven by an engine. Appl Energy 2003;76:379–89. 110 Jiangzhou S, Wang RZ, Lu YZ, Xu YX, Wu JY, Li ZH. Locomotive driver cabin adsorption air-conditioner. Renew Energy 2003;28:1659–70. 111 QinF,ChenJ,LuM,ChenZ,ZhouY,YangK. Development of a metal hydride refrigeration system as an exhaust gas-driven automobile air conditioner. Renewable Energy 2007;32:2034–52. 19 © 2012 Global Journals Inc. (US) Global Journal of Researches in Engineering (A ) Volume XII Issue vvvvI Version I January 2012

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