Page 307 - Defrosting for Air Source Heat Pump
P. 307

Defrosting control strategy                                       301

            [5] Lawrence JMW, Evans JA. Refrigerant flow instability as a means to predict the need for
               defrosting the evaporator in a retail display freezer cabinet. Int J Refrig 2008;31:107–12.
            [6] Suleyman Yigit K, Metin Ertunc H. Prediction of the air temperature and humidity at the
               outlet of a cooling coil using neural networks. Int Commun Heat Mass Transf 2006;33
               (7):898–907.
            [7] Kim MH, Lee KS. Determination method of defrosting start-time based on temperature
               measurements. Appl Energy 2015;146:263–9.
            [8] Da Silva DL, Hermes CJL, Melo C. First-principles modeling of frost accumulation on
               fan-supplied tube-fin evaporators. Appl Therm Eng 2011;31(14–15):2616–21.
            [9] Ye HY, Lee KS. Performance prediction of a fin-and-tube heat exchanger considering air-
               flow reduction due to the frost accumulation. Int J Heat Mass Transf 2013;67:225–33.
           [10] Qu ML, Xia L, Jiang YQ, Deng SM. A study of the reverse cycle defrosting performance
               on a multi-circuit outdoor coil in an air source heat pump-part I: experiments. Appl Energy
               2012;91:122–9.
           [11] Song MJ, Xia L, Mao N, Deng SM. An experimental study on even frosting performance
               of an air source heat pump unit with a multi-circuit outdoor coil. Appl Energy 2016;
               164:36–44.
           [12] Steiner A, Rieberer R. Parametric analysis of the defrosting process of a reversible heat
               pump system for electric vehicles. Appl Therm Eng 2013;61:393–400.
           [13] Zhang L, Jiang YQ, Dong JK, Yao Y, Deng SM. An experimental study of frost distribu-
               tion and growth on finned tube heat exchangers used in air source heat pump units. Appl
               Therm Eng 2018;132:38–51.
           [14] Amer M, Wang CC. Review of defrosting methods. Renew Sustain Energy Rev 2017;
               73:53–74.
           [15] Song MJ, Mao N, Deng SM, Xia YD, Chen Y. Y, An experimental study on defrosting
               performance for an air source heat pump unit at different frosting evenness values with
               melted frost locally drainage. Appl Therm Eng 2016;99:730–40.
           [16] Song MJ, Deng SM, Xia L. A semi-empirical modeling study on the defrosting perfor-
               mance for an air source heat pump unit with local drainage of melted frost from its
               three-circuit outdoor coil. Appl Energy 2014;136:537–47.
           [17] Song MJ, Xia L, Deng SM. A modeling study on alleviating uneven defrosting for a ver-
               tical three-circuit outdoor coil in an air source heat pump unit during reverse cycle
               defrosting. Appl Energy 2016;161:268–78.
           [18] Song MJ, Wang ZH, Mao N, Li Z, Chen Y. An experimental study on the uneven refrig-
               erant distribution over a vertically installed multi-circuit outdoor coil in an air source heat
               pump unit during reverse cycle defrosting. Appl Therm Eng 2015;91:975–85.
           [19] Qu ML, Xia L, Deng SM, Jiang YQ. Improved indoor thermal comfort during defrost with
               a novel reverse-cycle defrosting method for air source heat pumps. Build Environ 2010;45
               (11):2354–61.
           [20] Li LT, Wang W, Sun YY, Feng YC, Lu WP, Zhu JH, Ge YJ. Investigation of defrosting
               water retention on the surface of evaporator impacting the performance of air source heat
               pump during periodic frosting-defrosting cycles. Appl Energy 2014;135:98–107.
   302   303   304   305   306   307   308   309   310   311   312