Page 51 - Defrosting for Air Source Heat Pump

Previous related work: A review 41

frosting paint, Part I: anti-frosting performance and comparison with the uncoated metallic
surface. Int J Refrig 2006;29:229–36.
[51] Chen X, Ma R, Zhou H, Zhou X, Che L, Yao S, Wang Z. Activating the microscale edge
effect in a hierarchical surface for frosting suppression and defrosting promotion. Sci Rep
2013;3:2515.
[52] Zuo ZP, Liao RJ, Zhao XT, Song XY, Qiao ZW, Guo C, Zhuang AY, Yuan Y. Anti-
frosting performance of superhydrophobic surface with ZnO nanorods. Appl Therm
Eng 2017;110:39–48.
[53] da Silva DL, Melo C, Hermes CJL. Effect of frost morphology on the thermal-hydraulic
performance of fan-supplied tube-fin evaporators. Appl Therm Eng 2017;111:1060–8.
[54] Wu XM, Chu FQ, Ma Q, Zhu B. Frost formation and frost meltwater drainage character-
istics on aluminum surfaces with grooved structures. Appl Therm Eng 2017;118:448–54.
[55] Moriya T, Manabe K, Tenjimbayashi M, Suwabe K, Tsuchiya H, Matsubayashi T,
Navarrini W, Shiratori S. A superrepellent coating with dynamic fluorine chains for frost-
ing suppression: effects of polarity, coalescence and ice nucleation free energy barrier.
RSC Adv 2016;6:95.
[56] Sommers AD, Truster NL, Napora AC, Riechman AC, Caraballo EJ. Densification of frost
on hydrophilic and hydrophobic substrates—examining the effect of surface wettability.
Exp Therm Fluid Sci 2016;75:25–34.
[57] Zhao Y, Luo YT, Li J, Yin F, Zhu J, Gao XF. Condensate microdrop self-propelling alu-
minum surfaces based on controllable fabrication of alumina rod-capped nanopores. ACS
Appl Mater 2015;7:11079–82.
[58] Kim D, Kim H, Kim SW, Kim DR, Lee KS. Experimental investigation of frost retardation
for superhydrophobic surface using a luminance meter. Int J Heat Mass Transf
2015;87:491–6.
[59] Liang CH, Wang F, L€ u Y, Wu CX, Zhang XS, Zhang YF. Experimental study of the effects
of fin surface characteristics on defrosting behavior. Appl Therm Eng 2015;75:86–92.
[60] Wang F, Liang CH, Yang MT, Fan C, Zhang XS. Effects of surface characteristic on frosting
and defrosting behaviors of fin-tube heat exchangers. Appl Therm Eng 2015;75:1126–32.
[61] Bharathidasan T, Vijay Kumar S, Bobji MS, Chakradhar RPS, Basu BJ. Effect of wetta-
bility and surface roughness on ice-adhesion strength of hydrophilic, hydrophobic and
superhydrophobic surfaces. Appl Surf Sci 2014;314:241–50.
[62] 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.
[63] Miljkovic N, Enright R, Nam Y, Lopez K, Dou N, Sack J, Wang EN. Jumping-droplet-
enhanced condensation on scalable superhydrophobic nanostructured surfaces. Nano Lett
2013;13:179–87.
[64] Kim K, Lee KS. Frosting and defrosting characteristics of surface-treated louvered-fin
heat exchangers: effects of fin pitch and experimental conditions. Int J Heat Mass Transf
2013;60:505–11.
[65] Moallem E, Cremaschi L, Fisher DE, Padhmanabhan S. Experimental measurements of
the surface coating and water retention effects on frosting performance of microchannel
heat exchangers for heat pump systems. Exp Therm Fluid Sci 2012;39:176–88.
[66] Kulinich SA, Farzaneh M. Ice adhesion on super-hydrophobic surfaces. Appl Surf Sci
2009;255(18):8153–7.
[67] Huang LY, Liu ZL, Liu YM, Gou YJ, Wang JT. Experimental study on frost release on fin-
and-tube heat exchangers by use of a novel anti-frosting paint. Exp Therm Fluid Sci
2009;33(7):1049–54.