Review of Micro–Nanoscale Surface Coatings Application for Sustaining Dropwise Condensation
Source abstract
Abstract
Condensation occurs in most of the heat transfer processes, ranging from cooling of electronics to heat rejection in power plants. Therefore, any improvement in condensation processes will be reflected in the minimization of global energy consumption, reduction in environmental burdens, and development of sustainable systems. The overall heat transfer coefficient of dropwise condensation (DWC) is higher by several times compared to filmwise condensation (FWC), which is the normal mode in industrial condensers. Thus, it is of utmost importance to obtain sustained DWC for better performance. Stability of DWC depends on surface hydrophobicity, surface free energy, condensate liquid surface tension, contact angle hysteresis, and droplet removal. The required properties for DWC may be achieved by micro–nanoscale surface modification. In this survey, micro–nanoscale coatings such as noble metals, ion implantation, rare earth oxides, lubricant-infused surfaces, polymers, nanostructured surfaces, carbon nanotubes, graphene, and porous coatings have been reviewed and discussed. The surface coating methods, applications, and enhancement potential have been compared with respect to the heat transfer ability, durability, and efficiency. Furthermore, limitations and prevailing challenges for condensation enhancement applications have been consolidated to provide future research guidelines.
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Research context
OpenAlex topics: Surface Modification and Superhydrophobicity · Advanced Sensor and Energy Harvesting Materials · Nanomaterials and Printing Technologies
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
Affiliations
Division of Sustainable Development (DSD), College of Science and Engineering (CSE), Hamad Bin Khalifa University (HBKU), Education City, Doha P.O. Box 5825, Qatar
Faculty of Mechanical Engineering, The Ghulam Ishaq Khan Institute of Engineering Sciences and Technology, Topi, Swabi, Khyber Pakhtunkhwa 23640, Pakistan
Funding
Qatar National Library
References (100+)
Show source-provided references
1. Khan, S., Atieh, M., and Koç, M. (2018). Micro-nano scale surface coating for nucleate boiling heat transfer: A critical review. Energies, 11.10.3390/en11113189 ↗
2. Nanograssed micropyramidal architectures for continuous dropwise condensation10.1002/adfm.201101302 ↗
3. Khan, S.A., Bicer, Y., and Koç, M. (2018). Design and analysis of a multigeneration system with concentrating photovoltaic thermal (CPV/T) and hydrogen storage. Int. J. Hydrog. Energy, in press.
4. Advances in seawater desalination technologies10.1016/j.desal.2007.01.067 ↗
5. Three dimensional aspects of droplet coalescence during dropwise condensation on superhydrophobic surfaces10.1039/c1sm06219k ↗
6. (2006). Human Development Report 2006, United Nations Development Programme.
7. (2010). World Energy Outlook 2010, International Energy Agency.
8. Khan, Z., Shah, R., Islam, S., Jan, H., Jan, B., Rasheed, H.-U., and Khan, A. (2017). MHD flow and heat transfer analysis in the wire coating process using elastic-viscous. Coatings, 7.10.20944/preprints201701.0052.v1 ↗
9. Experimental investigation of dropwise condensation on hydrophobic heat exchangers part I: Dimpled-sheets10.1016/j.desal.2011.05.021 ↗
10. Wi, Y., Kim, J., Lee, J., and Lee, J. (2018). Optimal patterned wettability for microchannel flow boiling using the lattice Boltzmann method. Coatings, 8.10.3390/coatings8080288 ↗
11. Bonner, R.W. (2009, January 19–23). Dropwise condensation on surfaces with graded hydrophobicity. Proceedings of the ASME 2009 Heat Transfer Summer Conference collocated with the InterPACK09 and 3rd Energy Sustainability Conferences, San Francisco, CA, USA.10.1115/HT2009-88516 ↗
12. Wang, Q., Xie, H., Hu, Z., and Liu, C. (2019). The impact of the electric field on surface condensation of water vapor: Insight from molecular dynamics simulation. Nanomaterials, 9.10.3390/nano9010064 ↗
13. Islam, A., Sun, A., and Sepehrnoori, K. (2019). An efficient computational scheme for two-phase steam condensation in the presence of CO2 for wellbore and long-distance flow. ChemEngineering, 3.10.3390/chemengineering3010004 ↗
14. Mabrouk, A., Abotaleb, A., Tahir, F., Darwish, M., Aini, R., Koc, M., and Abdelrashid, A. (2017, January 15–20). High performance MED desalination plants Part I: Novel design MED evaporator. Proceedings of the IDA 2017 World Congress on Water Reuse and Desalination and Water Science, Sao Paulo, Brazil.
15. Baawain, M.S., Choudri, B.S., Ahmed, M., and Purnama, A. (2015). The effect of fouling on performance and design aspects of multiple-effect desalination systems. Recent Progress in Desalination, Environmental and Marine Outfall Systems, Springer International Publishing.10.1007/978-3-319-19123-2 ↗
16. Mabrouk, A., Abotaleb, A., Abdelrehim, H., Tahir, F., Koc, M., Abdelrashid, A., and Nasralla, A. (2017, January 15–20). High performance MED desalination plants, Part II: Novel integration MED-absorption vapor compression. Proceedings of the IDA 2017 World Congress on Water Reuse and Desalination and Water Science, Sao Paulo, Brazil.
17. Bonner, R.W. (2010, January 8–13). Dropwise condensation life testing of self assembled monolayers. Proceedings of the 2010 14th International Heat Transfer Conference, Washington, DC, USA.10.1115/IHTC14-22936 ↗
18. Dropwise condensation on soft hydrophobic coatings10.1021/acs.langmuir.7b03141 ↗
19. Bejan, A., and Kraus, A.D. (2003). Heat transfer enhancement. Heat Transfer Handbook, Wiley.
20. Ullah, A., Alzahrani, E., Shah, Z., Ayaz, M., and Islam, S. (2018). Nanofluids thin film flow of Reiner-Philippoff fluid over an unstable stretching surface with Brownian motion and thermophoresis effects. Coatings, 9.10.3390/coatings9010021 ↗
21. Zhao, X., Chen, X., Zhang, L., Liu, Q., Wang, Y., Zhang, W., and Zheng, J. (2018). Preparation of nano-hydroxyapatite coated carbon nanotube reinforced hydroxyapatite composites. Coatings, 8.10.3390/coatings8100357 ↗
22. Effects of geometry and dimension of micro/nano-structures on the heat transfer in dropwise condensation: A theoretical study10.1016/j.applthermaleng.2018.04.003 ↗
23. Attinger, D., Frankiewicz, C., Betz, A.R., Schutzius, T.M., Ganguly, R., Das, A., Kim, C., and Megaridis, C.M. (2014). Surface engineering for phase change heat transfer: A review. MRS Energy Sustain., 1.10.1557/mre.2014.9 ↗
24. Review of boiling heat transfer enhancement on micro/nanostructured surfaces10.1016/j.expthermflusci.2015.03.023 ↗
25. Oxidative acid treatment of carbon nanotubes10.1016/j.surfin.2018.11.001 ↗
26. Stabilization of the aqueous dispersion of carbon nanotubes using different approaches10.1016/j.tsep.2018.09.011 ↗
27. A review of nanofluid heat transfer and critical heat flux enhancement—Research gap to engineering application10.1016/j.pnucene.2013.03.009 ↗
28. Dropwise condensation on superhydrophobic nanostructured surfaces: Literature review and experimental analysis10.1088/1742-6596/501/1/012028 ↗
29. Simultaneous dropwise and filmwise condensation on hydrophilic microstructured surfaces10.1016/j.ijheatmasstransfer.2017.06.023 ↗
30. Su, J., Inalpolat, M., Ge, T., Esmaeilzadeh, H., and Sun, H. (2016, January 10–14). Experimental study and analysis of dropwise condensation using quartz. Proceedings of the ASME 2016 Heat Transfer Summer Conference collocated with the ASME 2016 Fluids Engineering Division Summer Meeting and the ASME 2016 14th International Conference on Nanochannels, Microchannels, and Minichannels, Washington, DC, USA.
31. Gas-dynamic boundary conditions of evaporation and condensation: Numerical analysis of the Knudsen layer10.1063/1.1516211 ↗
32. Theoretical and numerical studies of noncontinuum gas-phase heat conduction in micro/nano devices10.1080/10407791003749159 ↗
33. Multiple temperature kinetic model and its applications to micro-scale gas flows10.1016/j.compfluid.2012.07.006 ↗
34. Numerical investigation of convective dropwise condensation flow by a hybrid thermal lattice Boltzmann method10.1016/j.applthermaleng.2018.09.076 ↗
35. Of dropwise condensation heat transfer enhancement on silver coated copper surface using n-Heptane as surfactant additive
36. Kashchiev, D. (2000). Nucleation: Basic Theory with Applications, Butterworth Heinemann.10.1016/B978-075064682-6/50012-3 ↗
37. Bergman, T.L., Incropera, F.P., DeWitt, D.P., and Lavine, A.S. (2011). Fundamentals of Heat and Mass Transfer, John Wiley & Sons.
38. Dewetting transitions of dropwise condensation on nanotexture-enhanced superhydrophobic surfaces10.1021/acsnano.5b05607 ↗
39. Nucleation and growth of clusters in the process of vapor deposition10.1016/S0039-6028(99)00360-X ↗
40. Practical model for molecular contaminant deposition kinetics10.2514/3.11548 ↗
41. Gold surfaces for condensation heat transfer10.1007/BF03216737 ↗
42. Self-propelled dropwise condensate on superhydrophobic surfaces10.1103/PhysRevLett.103.184501 ↗
43. Condensation heat transfer on superhydrophobic surfaces10.1557/mrs.2013.103 ↗
44. Interphase matter transfer, the condensation coefficient and dropwise condensation
45. Carey, V.P. (2008). Liquid-Vapor Phase-Change Phenomena, Taylor & Francis Group. [2nd ed.].
46. On mechanism of dropwise condensation10.1016/0017-9310(69)90174-4 ↗
47. Dropwise condensation theory and experiment: A review10.1243/09576500260049034 ↗
48. Rose, J.W. (2011). Condensation overview. A-to-Z Guide to Thermodynamics, Heat and Mass Transfer, and Fluids Engineering, Begell House.
49. Improvement of condensation heat transfer by surface modifications10.1080/01457630701821563 ↗
50. Versuche über die Kondensation von Wasserdampf in Film- und Tropfenform
51. Advances in condensation heat transfer10.1016/S0065-2717(08)70334-4 ↗
52. Condensation of steam with and without the presence of non-condensable gases in a vertical tube10.1016/j.desal.2003.11.006 ↗
53. Numerical investigation of convective condensation with the presence of non-condensable gases in a vertical tube10.1016/j.nucengdes.2015.11.034 ↗
54. Condensation heat transfer in the presence of a non-condensable gas10.1016/0017-9310(68)90060-4 ↗
55. Comparison of film condensation models in presence of non-condensable gases implemented in a CFD Code10.1007/s00231-004-0606-5 ↗
56. Dropwise condensation—some factors influencing the validity of heat-transfer measurements10.1016/0017-9310(68)90094-X ↗
57. An experimental study of heat transfer by dropwise condensation10.1016/0017-9310(65)90139-0 ↗
58. Lee, J., Shao, B., and Won, Y. (June, January 29). Two-level copper oxide nanostructured surfaces for condensation heat transfer. Proceedings of the 2018 17th IEEE Intersociety Conference on Thermal and Thermomechanical Phenomena in Electronic Systems (ITherm), San Diego, CA, USA.10.1109/ITHERM.2018.8419556 ↗
59. Orientation effects of nanoparticle-modified surfaces with interlaced wettability on condensation heat transfer10.1016/j.applthermaleng.2016.01.003 ↗
60. The effect of surface wettability on water vapor condensation in nanoscale10.1038/srep19192 ↗
61. Scale effects of graphene and graphene oxide coatings on pool boiling enhancement mechanisms10.1016/j.ijheatmasstransfer.2017.01.110 ↗
62. Dropwise condensation on micro- and nanostructured surfaces10.1080/15567265.2013.862889 ↗
63. Design and fabrication of a hybrid superhydrophobic–hydrophilic surface that exhibits stable dropwise condensation10.1021/acsami.5b06759 ↗
64. Dropwise steam condensation on various hydrophobic surfaces: Polyphenylene sulfide (PPS), polytetrafluoroethylene (PTFE), and self-assembled micro/nano silver (SAMS)10.1016/j.ijheatmasstransfer.2015.05.060 ↗
65. Scalable graphene coatings for enhanced condensation heat transfer10.1021/nl504628s ↗
66. Experimental investigation of condensation heat transfer on hybrid wettability finned tube with large amount of noncondensable gas10.1016/j.ijheatmasstransfer.2015.02.006 ↗
67. An essay on the cohesion of fluids
68. Resistance of solid surfaces to wetting by water10.1021/ie50320a024 ↗
69. Wettability of porous surfaces10.1039/tf9444000546 ↗
70. Superhydrophobic states10.1038/nmat924 ↗
71. Condensation on hybrid-patterned copper tubes (I): Characterization of condensation heat transfer10.1016/j.ijheatmasstransfer.2017.05.039 ↗
72. Immersion condensation on oil-infused heterogeneous surfaces for enhanced heat transfer10.1038/srep01988 ↗
73. The use of an organic self-assembled monolayer coating to promote dropwise condensation of steam on horizontal tubes10.1115/1.521465 ↗
74. Flow condensation on copper-based nanotextured superhydrophobic surfaces10.1021/la304389s ↗
75. Factors affecting the spontaneous motion of condensate drops on superhydrophobic copper surfaces10.1021/la300609f ↗
76. Condensation of steam on the surface of hard coated copper discs10.1007/s002310050105 ↗
77. The use of organic coatings to promote dropwise condensation of steam10.1115/1.3248156 ↗
78. Evaluation of organic coatings for the promotion of dropwise condensation of steam10.1016/0017-9310(86)90142-0 ↗
79. Sezer, N., and Koc, M. (2018, January 25–28). Dispersion stability of CNT and CNT/Metal-based nanofluids. Proceedings of the ICTEA 2018: 11th International Conference on Thermal Engineering, Doha, Qatar.
80. Heat transfer promotion of an aluminum-brass cooling tube by surface treatment with triazinethiols10.1021/la00054a024 ↗
81. Wettability of metals under continuous condensing conditions10.1021/j100888a035 ↗
82. Dropwise condensation on gold10.1007/BF03215172 ↗
83. Dropwise and filmwise condensation of water vapor on gold10.1002/aic.690190117 ↗
84. Promoting permanent dropwise condensation10.1021/ie50670a009 ↗
85. Steam condensation on electroplated gold: effect of plating thickness10.1016/0017-9310(79)90066-8 ↗
86. Steam condensation on various gold surfaces10.1115/1.3244527 ↗
87. The hydrophilic nature of a clean gold surface10.1016/0021-9797(80)90348-3 ↗
88. Dropwise condensation of steam on electroplated silver surfaces10.1016/0017-9310(84)90266-7 ↗
89. Effects of extended surface and surface gold plating on condensation characteristics of steam with large amount of CO210.1016/j.expthermflusci.2017.08.026 ↗
90. Experimental and numerical analysis of oxy-fuel combustion in a porous plate reactor10.1002/er.3323 ↗
91. Entropy generation in condensation in the presence of high concentrations of noncondensable gases10.1016/j.ijheatmasstransfer.2012.05.014 ↗
92. Erb, R.A., and Thelen, E. (1965, January 3–9). Dropwise condensation. Proceedings of the First International Sympposium on Water Desalination, Washington, DC, USA.
93. Di Luzio, F.C., Sieder, E.N., and Cadwallader, E.A. (1966). Research and Development Progress Report No. 184 Dropwise Condensation Characteristics of Permanent Hydrophobic Systems, Franklin Institute.
94. Superhydrophobic surfaces by laser ablation of rare-earth oxide ceramics10.1557/mrc.2014.20 ↗
95. Hydrophobicity of thin films of compounds of low-electronegativity metals10.1111/jace.13165 ↗
96. Hydrophobicity of rare-earth oxide ceramics10.1038/nmat3545 ↗
97. Role of surface oxygen-to-metal ratio on the wettability of rare-earth oxides10.1063/1.4907756 ↗
98. Effect of hydrocarbon adsorption on the wettability of rare earth oxide ceramics10.1063/1.4886410 ↗
99. Exploring the role of adsorption and surface state on the hydrophobicity of rare earth oxides10.1021/acsami.7b01515 ↗
100. Khan, S.M.K. (2016). Hydrophobicity of Rare-Earth Oxide Ceramics and Their Application in Promoting Sustained Drop-Wise Condensation. [Ph.D. Thesis, Massachusetts Institute of Technology (MIT)].