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[129] [130] [131] [132] [133] [134] [135] [136] Bhatti M. A critical look at R-744 and R-134a mobile air conditioning systems. SAE Paper No. 970527; 1997. Fischer S, Sand J. Total Environmental Impact (TEWI) calculations for alternative automotive air-conditioning systems. SAE Paper No. 970526; 1997. Pettersen J, Hafner A. Energetischer Wirkungsgrad und TEWI von CO2-Fahrzeug-Klimaanlagen. Seminar: Fahr- zeugklimatisierung mit Naturlichen Kaetlemitteln, Karls- ruhe, C.F. Mueller Verlag; March 8, 1997. Gentner H. Passenger car air conditioning using carbon dioxide as refrigerant. Proceedings of the Third IIR-Gustav Lorentzen Conference on Natural Working Fluids, Oslo, Norway; 1998. p. 303 – 13. Boewe D, McEnaney R, Park Y, Yin J, Bullard C, Hrnjak P. Comparative experimental study of subcritical R134a and transcritical R744 refrigeration systems for mobile appli- cations. ACRC report CR-17. University of Illinois at Urbana-Champaign, Illinois; 1999. Beaver A, Yin J, Bullard C. An experimental investigation of transcritical carbon dioxide systems for residential air conditioning. ACRC report CR-18. University of Illinois at Urbana-Champaign, Illinois; 1999. Yin J, Park Y, Boewe D, McEnaney R, Beaver A, Bullard C, Hrnjak P. Experimental and model comparison of transcri- tical CO2 versus R134a and R410 system performance. Proceedings of the Third IIR-Gustav Lorentzen Conference on Natural Working Fluids, Oslo, Norway; 1998. p. 331 – 40. McEnaney R, Boewe D, Yin J, Park Y, Bullard C, Hrnjak P. Experimental comparison of mobile A/C systems when operated with transcritical CO2 versus conventional R134a. Proceedings of the Third IIR-Gustav Lorentzen Conference on Natural Working Fluids, Oslo, Norway; 1998. p. 145 – 50. [145] [146] [147] [148] [149] [150] [151] [152] [153] [154] [155] [156] [157] [158] [159] [160] air-conditioning and heat pumping. MS Thesis. University of Illinois at Urbana-Champaign, Illinois; 2002. Itoh M, Kogure H, Yoshinaga S, Hoshino R, Wakabayashi N, Kudoh M, Kusumoto H. Study on parallel-flow-type heat exchangers for residential heat pump systems. Proceedings of the JAR Annual Conference; 1996. p. 73 – 6. Song S, Bullard C, Hrnjak P. Frost deposition and refrigerant distribution in microchannel heat exchangers. ASHRAE Trans 2002;108(2):944 – 53. Hammer H, Wertenbach J. Carbon dioxide (R-744) as supplementary heating device. The SAE Automotive Alter- nate Refrigerants Systems Symposium, Scottsdale, AZ; 2000. PettersenJ,AarlienR,Neksa ̊P,SkaugenG,AflektK.A comparative evaluation of CO2 and HCFC-22 residential air-conditioning systems in a Japanese climate. IEA/IIR Workshop on CO2 Technologies in Refrigeration, Heat Pump and Air Conditioning Systems, Trondheim, Norway; 1997. ARI, Standard 210/240, Standard for air-conditioning and air-source heat pump. Arlington, VA: Air-conditioning and Refrigeration Institute; 1994. Beaver A, Hrnjak P, Yin J, Bullard C. Effects of distribution in headers of microchannel evaporators on transcritical CO2 heat pump performance. In: Garimella S, Von Spakovsky M, Somasundaram S, editors. The ASME advanced energy systems division, AES-vol. 40. New York: ASME; 2000. p. 55 – 64. Sand J, Fischer S, Baxter V. Comparison of TEWI for fluorocarbon alternative refrigerants and technologies in residential heat pumps and air-conditionings. ASHRAE Trans 1999;105(1):1209 – 18. Richter M, Song S, Yin J, Kim M-H, Bullard C, Hrnjak P. Experimental results of transcritical CO2 heat pump for residential application. Energy 2003;28:1005 – 19. Richter M, Bullard C, Hrnjak P. Effect of comfort constraints on cycle efficiencies. In: Hernandez-Guerrero A, editor. The ASME advanced energy systems division, AES-vol. 41. New York: ASME; 2001. p. 275 – 86. Neksa ̊ P, Zakeri G, Aarlien R, Jakobsen A. Carbon dioxide as working fluid in air conditioning and heat pump systems. The Earth Technologies Forum, Washington, DC; 1998. Hwang Y, Radermacher R. Theoretical evaluation of carbon dioxide refrigeration cycle. Int J HVAC&R Res 1998;4(3): 245 – 63. Hwang Y, Radermacher R. Experimental investigation of the CO2 refrigeration cycle. ASHRAE Trans 1999;105(1): 1219 – 27. Rieberer R, Halozan H. CO2 heat pumps in controlled ventilation systems. Proceedings of the Third IIR-Gustav Lorentzen Conference on Natural Working Fluids, Oslo, Norway; 1998. p. 212 – 22. Rieberer R, Kasper G, Halozan H. CO2: a chance for once- through heat pump heaters. CO2 technology in refrigeration, heat pumps and air conditioning systems, Trondheim, Norway; 1997. Schiefloe P, Neksa ̊ P. CO2 varmepumpe for bygningsopp- varming. forprosjekt (Project report, in Norwegian). Trond- heim, Norway: SINTEF Energy Research; 1999. Enkemann T, Kruse H, Oostendorp P. CO2 as a heat pump working fluid for retrofitting hydronic heating systems in M.-H. Kim et al. / Progress in Energy and Combustion Science 30 (2004) 119–174 173 [137] McEnaney R, Park Y, Yin J, Bullard C, Hrnjak P. Performance of the prototype of a transcritical R744 mobile A/C system. SAE Paper No. 99PC-6-7; 1999. McEnaney R, Hrnjak P. Control strategies for transcritical R744 systems. SAE Paper No. 2000-01-1272; 2000. McEnaney R, Yin J, Bullard C, Hrnjak P. An investigation of control-related issues in transcritical R744 and subcritical R134a mobile air conditioning systems. ACRC report CR-19. University of Illinois at Urbana-Champaign, Illinois; 1999. Park Y, Yin J, Bullard C, Hrnjak P. Experimental and model analysis of control and operating parameters of transcritical CO2 mobile A/C system. Proceedings of VTMS-4 Con- ference, London, England; 1999. p. 163 – 70. [138] [139] [140] [141] [142] [143] [144] Hrnjak P. Some lessons learned from SAE AR CRP. The SAE Automotive Alternative Refrigerant Systems Sym- posium, Scottsdale, AZ; 2002. Giannavola M, Murphy R, Yin J, Kim M-H, Bullard C, Hrnjak P. Experimental investigations of an automotive heat pump prototype for military, SUV and compact cars. In: Groll EA, Robinson DM, editors. The Fourth IIR-Gustav Lorentzen Conference on Natural Working Fluids, West Lafayette, IN. 2000. p. 115 – 22. Hafner A. Experimental study on heat pump operation of prototype CO2 mobile air conditioning system. In: Groll EA, Robinson DM, editors. The Fourth IIR-Gustav Lorentzen Conference on Natural Working Fluids, West Lafayette, IN. 2000. p. 183 – 90. Giannavola M. Experimental study of system performance improvements in transcritical R744 systems for mobilePDF Image | CO2 Vapor Compression Systems
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