Performance comparison of absorption heating cycles using various low-GWP and natural refrigerants;Comparaison de la performance des cycles de chauffage à absorption fonctionnant avec divers frigorigènes naturels et à faible GWP

International Journal of Refrigeration

Volumn 82, Issue , 2017, Pages 56-70

  Wu, Wei ^a   Zhang, Haiyang ^b   You, Tian ^a   Li, Xianting ^a  

^a TSINGHUA UNIVERSITY   (China)

^b TECHNICAL INSTITUTE OF PHYSICS AND CHEMISTRY   (China)

Author keywords

Absorption heat pump; Energy saving; Heating; Low GWP; Working fluids

Indexed keywords

COMPRESSION RATIO (MACHINERY); EMISSION CONTROL; ENERGY CONSERVATION; ENERGY EFFICIENCY; EVAPORATION; FLUIDS; HEAT PUMP SYSTEMS; REFRIGERANTS; REFRIGERATING MACHINERY;

ABSORPTION HEAT PUMPS; CONDENSATION TEMPERATURE; CONVENTIONAL ABSORPTION; EVAPORATION TEMPERATURE; GENERATION TEMPERATURE; LOW-GWP; PRIMARY ENERGY EFFICIENCIES; WORKING FLUID;

HEATING;

EID: 85026815747     PISSN: 01407007     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.ijrefrig.2017.07.004     Document Type: Article

References (44)

1. Aspen Technology Inc., Aspen Plus. 2013.
2. ASHRAE, ANSI/ASHRAE Standard 34–2013 Designation and Safety Classification of Refrigerants. ASHRAE, Atlanta, 2013.
3. Breeze, P., Chapter 3 – gas-fired power generation technology. Gas-Turbine Power Generation, 2016, Academic Press, Cambridge, MA, 21–29.
4. Deng, R.L., Jing, X.Y., Zheng, D.X., Li, X.X., Vapor–liquid equilibrium measurements and assessments of fluoroethane+ N, N-dimethylformamide and fluoroethane+ dimethylether diethylene glycol systems for the hybrid refrigeration cycle. Int. J. Refrigeration 43 (2014), 176–186.
5. Feng, L.J., Zheng, D.X., Huang, W.J., Ma, Z., Measurement and correlation of isothermal vapor–liquid equilibrium of fluoroethane+ dimethyl ether triethylene glycol, 1, 1-difluoroethane+ dimethyl ether triethylene glycol, and 1, 1-difluoroethane+ N-methyl-2-pyrrolidone systems. J. Chem. Eng. Data 61:3 (2016), 1146–1154.
6. Fong, K.F., Lee, C.K., Performance advancement of solar air-conditioning through integrated system design for building. Energy 73 (2014), 987–996.
7. Gilani, S., Ahmed, M., Solution crystallization detection for double-effect LiBr-H2O steam absorption chiller. Energy Procedia 75 (2015), 1522–1528.
8. Han, X.H., Gao, Z.J., Xu, Y.J., Qiu, Y., Min, X.W., Cui, X.L., et al. Solubility of refrigerant 1, 1, 1, 2-tetrafluoroethane in the N, N-dimethyl formamide in the temperature range from (263.15 to 363.15) K. J. Chem. Eng. Data 56:5 (2011), 1821–1826.
9. Han, X.H., Xu, Y.J., Gao, Z.J., Wang, Q., Chen, G.M., Vapor–liquid equilibrium study of an absorption heat transformer working fluid of (HFC-32+ DMF). J. Chem. Eng. Data 56:4 (2011), 1268–1272.
10. Herold, K.E., Radermacher, R., Klein, S.A., Absorption chillers and heat pumps. 2016, CRC Press, Boca Raton.
11. Jelinek, M., Levy, A., Borde, I., The performance of a triple pressure level absorption cycle (TPLAC) with working fluids based on the absorbent DMEU and the refrigerants R22, R32, R124, R125, R134a and R152a. Appl. Therm. Eng 28:11 (2008), 1551–1555.
12. Jin, L., Cao, F., Yang, D.F., Wang, X.L., Performance investigations of an R404A air-source heat pump with an internal heat exchanger for residential heating in northern China. Int. J. Refrigeration 67 (2016), 239–248.
13. Kim, S., Kohl, P.A., Analysis of [hmim][PF6] and [hmim][Tf2N] ionic liquids as absorbents for an absorption refrigeration system. Int. J. Refrigeration 48 (2014), 105–113.
14. Klein, S.A., Engineering equation solver (EES), academic professional version, F-Chart software. 2015.
15. Labus, J.M., Bruno, C.J., Coronas, A., Review on absorption technology with emphasis on small capacity absorption machines. Therm. Sci 17:3 (2013), 739–762.
16. Li, X.T., Wu, W., Zhang, X.L., Shi, W.X., Wang, B.L., Energy saving potential of low temperature hot water system based on air source absorption heat pump. Appl. Therm. Eng 48 (2012), 317–324.
17. Li, X.T., Wu, W., Chuck, W.F., Energy demand for hot water supply for indoor environments: problems and perspectives. Indoor Built Environ 24:1 (2015), 5–10.
18. Li, Y., Fu, L., Zhang, S.G., Zhao, X.L., A new type of district heating system based on distributed absorption heat pumps. Energy 36:7 (2011), 4570–4576.
19. Mansouri, R., Boukholda, I., Bourouis, M., Bellagi, A., Modelling and testing the performance of a commercial ammonia/water absorption chiller using Aspen-Plus platform. Energy 93 (2015), 2374–2383.
20. McLinden, M.O., Kazakov, A.F., Brown, J.S., Domanski, P.A., A thermodynamic analysis of refrigerants: possibilities and tradeoffs for low-GWP refrigerants. Int. J. Refrigeration 38 (2014), 80–92.
21. McLinden, M.O., Brown, J.S., Brignoli, R., Kazakov, A.F., Domanski, P.A., Limited options for low-global-warming-potential refrigerants. Nat. Commun, 8, 2017, 10.1038/ncomms14476.
22. Meng, X.L., Zheng, D.X., Li, X.R., Shen, Y.S., Isothermal vapor–liquid equilibrium measurements of 1, 1-difluoroethane+ N, N-dimethylformamide and N, N-dimethylacetamide. J. Chem. Eng. Data 58:5 (2013), 1078–1085.
23. Mohanraj, M., Jayaraj, S., Muraleedharan, C., Environment friendly alternatives to halogenated refrigerants – a review. Int. J. Greenhouse Gas Contr 3:1 (2009), 108–119.
24. NIST Standard Reference Database 23, NIST reference fluid thermodynamic and transport properties–REFPROP, v9.1. 2013.
25. Shang, S., Li, X.T., Wu, W., Wang, B.L., Shi, W.X., Energy-saving analysis of a hybrid power-driven heat pump system. Appl. Therm. Eng 123 (2017), 1050–1059.
26. Somers, C., Mortazavi, A., Hwang, Y., Radermacher, R., Rodgers, P., Al-Hashimi, S., Modeling water/lithium bromide absorption chillers in ASPEN Plus. Appl. Energy 88:11 (2011), 4197–4205.
27. 3 and NH3-NaSCN absorption refrigeration systems. Energy Convers. Manag 39:5 (1988), 357–368.
28. Sun, F.T., Fu, L., Zhang, S.G., Sun, J., New waste heat district heating system with combined heat and power based on absorption heat exchange cycle in China. Appl. Therm. Eng 37 (2012), 136–144.
29. United States Department of Energy (DOE), Buildings Energy Data Book: 2011. https://catalog.data.gov/dataset/buildings-energy-data-book, 2011.
30. Ventas, R., Lecuona, A., Zacarías, A., Venegas, M., Ammonia-lithium nitrate absorption chiller with an integrated low-pressure compression booster cycle for low driving temperatures. Appl. Therm. Eng 30:11 (2010), 1351–1359.
31. Wang, K., Abdelaziz, O., Kisari, P., Vineyard, E.A., State-of-the-art review on crystallization control technologies for water/LiBr absorption heat pumps. Int. J. Refrigeration 34:6 (2011), 1325–1337.
32. Wei, K.J., Li, W.X., Li, J.R., Wang, Y., Zhang, L., Study on a design method for hybrid ground heat exchangers of ground-coupled heat pump system. Int. J. Refrigeration 76 (2017), 394–405.
33. Wilcox, M., Brun, K., Guideline for Field Testing of Reciprocating Compressor Performance. Gas Machinery Research Council, 2009.
34. Wu, W., Wang, B.L., Shi, W.X., Li, X.T., Crystallization analysis and control of ammonia-based air source absorption heat pump in cold regions. Adv. Mech. Eng, 2013 http://dx.doi.org/10.1155/2013/140341.
35. Wu, W., Wang, B.L., Shi, W.X., Li, X.T., Absorption heating technologies: a review and perspective. Appl. Energy 130 (2014), 51–71.
36. Wu, W., Wang, B.L., Shi, W.X., Li, X.T., Performance improvement of ammonia/absorbent air source absorption heat pump in cold regions. Build. Serv. Eng. Res. Technol 35:5 (2014), 451–464.
37. Wu, W., Li, X.T., You, T., Wang, B.L., Shi, W.X., Hybrid ground source absorption heat pump in cold regions: thermal balance keeping and borehole number reduction. Appl. Therm. Eng 90 (2015), 322–334.
38. Wu, W., Shi, W.X., Wang, B.L., Li, X.T., Annual performance investigation and economic analysis of heating systems with a compression-assisted air source absorption heat pump. Energy Convers. Manag 98 (2015), 290–302.
39. 2O compression-assisted absorption heat pump (CAHP) for low temperature heating under lower driving sources. Appl. Energy 176 (2016), 258–271.
40. 2O compression-assisted absorption heat pump (CAHP) for low temperature heating in colder conditions. Int. J. Refrigeration 67 (2016), 109–124.
41. Xu, Z.Y., Wang, R.Z., Absorption refrigeration cycles: categorized based on the cycle construction. Int. J. Refrigeration 62 (2016), 114–136.
42. You, T., Wu, W., Shi, W.X., Wang, B.L., Li, X.T., An overview of the problems and solutions of soil thermal imbalance of ground-coupled heat pumps in cold regions. Appl. Energy 177 (2016), 515–536.
43. You, T., Li, X.T., Wu, W., Shi, W.X., Wang, B.L., Soga, K., Coupled heating of ground-coupled heat pump system with heat compensation unit: performance improvement and borehole reduction. Energy Convers. Manag 148 (2017), 57–67.
44. Zheng, D.X., Dong, L., Huang, W.J., Wu, X.H., Nie, N., A review of imidazolium ionic liquids research and development towards working pair of absorption cycle. Renew. Sustain. Energy Rev 37 (2014), 47–68.