Failure pressures and drag reduction benefits of superhydrophobic wire screens

Colloids and Surfaces A: Physicochemical and Engineering Aspects

Volumn 511, Issue , 2016, Pages 247-254

  Venkateshan, D G ^a   Amrei, M M ^a   Hemeda, A A ^a   Cullingsworth, Z ^a   Corbett, J ^a   Vahedi Tafreshi, H ^a  

^a Virginia Commonwealth University   (United States)

Author keywords

Air water interface; Breakthrough pressure; Slip length; Superhydrophobic wire screens; Wetting

Indexed keywords

AIR; AIR CLEANERS; DRAG; HYDROPHOBICITY; PHASE INTERFACES; WETTING; WIRE;

BREAKTHROUGH PRESSURES; DRAG-REDUCING EFFECTS; OPERATING PRESSURE; SELF-CLEANING SURFACES; SLIP LENGTH; WATER INTERFACE; WETTING PROPERTY; WIRE SCREENS;

DRAG REDUCTION;

ARTICLE; CHEMICAL REACTION; GENERAL DEVICE; HYDROPHOBICITY; HYDROSTATIC PRESSURE; PREDICTION; PRESSURE MEASUREMENT; PRIORITY JOURNAL; REDUCTION; SURFACE AREA; SURFACE PROPERTY; WIRE SCREEN;

EID: 84990214130     PISSN: 09277757     EISSN: 18734359     Source Type: Journal    
DOI: 10.1016/j.colsurfa.2016.09.087     Document Type: Article

References (40)

1. [1] Quere, D., Wetting and roughness. Annu. Rev. Mater. Res. 38 (2008), 71–99.
2. [2] Shirtcliffe, N.J., McHale, G., Atherton, S., Newton, M.I., An introduction to superhydrophobicity. Adv. Colloid Interface Sci. 161 (2010), 124–138.
3. [3] Rothstein, J.P., Slip on superhydrophobic surfaces. Annu. Rev. Fluid Mech. 42 (2010), 89–109.
4. [4] Ou, J., Rothstein, J.P., Direct velocity measurements of the flow past a drag-reducing utrahydrophobic surfaces. Phys. Fluids, 17, 2005, 103606.
5. [5] Lee, C., Choi, C.-H., Kim, C.-J., Structured surfaces for giant liquid slip. Phys. Rev. Lett., 101, 2008, 064501.
6. [6] Samaha, M.A., Tafreshi, H.V., Gad-el-Hak, M., Effects of hydrostatic pressures on drag-reduction performance of submerged aerogel particle coatings. Colloids Surf. A 399 (2012), 62–70.
7. [7] Hemeda, A., Tafreshi, H.V., Instantaneous slip-length in superhydrophobic microchannels: grooves with dissimilar walls or arbitrary wall curvatures. Phys. Fluids, 27, 2015, 102101.
8. [8] Davis, A.M.J., Lauga, E., The friction of a mesh-like super-hydrophobic surface. Phys. Fluids, 21, 2009, 113101.
9. [9] Srinivasan, S., Choi, W., Park, K.C., Chhatre, S.S., Cohen, R.E., McKinley, G.H., Drag reduction for viscous laminar flow on spray-coated non-wetting surfaces. Soft Matter 9 (2013), 5691–5702.
10. [10] Brennan, J.C., Geraldi, N.R., Morris, R.H., Fairhurst, D.J., McHale, G., Newton, M.I., Flexible conformable hydrophobized surfaces for turbulent flow drag reduction. Sci. Rep., 5, 2015, 10267.
11. [11] Srinivasan, S., Kleingartner, J.A., Gilbert, J.B., Cohen, R.E., Milne, A.J.B., McKinley, G.H., Sustainable drag reduction in turbulent Taylor-Couette flows by depositing sprayable superhydrophobic surfaces. Phys. Rev. Lett., 114, 2015, 014501.
12. [12] Lee, C.H., Johnson, N., Drelich, J., Yap, Y.K., The performance of superhydrophobic and superoleophilic carbon nanotube meshes in water–oil filtration. Carbon 49 (2011), 669–676.
13. [13] Song, J., Huang, S., Lu, Y., Bu, X., Mates, J.E., Ghosh, A., Ganguly, R., Carmalt, C.J., Parkin, I.P., Xu, W., Megaridis, C.M., Self-driven one-step oil removal from oil spill on water via selective-wettability steel mesh. ACS Appl. Mater. Interfaces 6 (2014), 19858–19865.
14. [14] Li, J., Yan, L., Li, H., Li, J., Zha, F., Lei, Z., A facile one-step spray-coating process for the fabrication of a superhydrophobic attapulgite coated mesh for use in oil/water separation. RSC Adv., 5, 2015, 53802.
15. [15] Patel, S.U., Chase, G.G., Separation of water droplets from water-in-diesel dispersion using superhydrophobic polypropylene fibrous membranes. Sep. Purif. Technol. 126 (2014), 62–68.
16. [16] Patel, S.U., Patel, S.U., Chase, G.G., Electrospun superhydrophobic poly(vinylidene fluoride-co-hexafluoropropylene) fibrous membranes for the separation of dispersed water from ultralow sulfur diesel. Energy Fuels 27 (2013), 2458–2464.
17. [17] Extrand, C.W., Repellency of the lotus leaf: resistance to water intrusion under hydrostatic pressure. Langmuir 27 (2011), 6920–6925.
18. [18] Ganne, A., Lebed, V.O., Gavrilov, A.I., Combined wet chemical etching and anodic oxidation for obtaining the superhydrophobic meshes with anti-icing performance. Colloids Surf. A 499 (2016), 150–155.
19. [19] Ling, E.J.Y., Uong, V., Renault-Crispo, J.-S., Kietzig, A.-M., Servio, P., Reducing ice adhesion on nonsmooth metallic surfaces: wettability and topography effects. ACS Appl. Mater. Interfaces 8 (2016), 8789–8800.
20. [20] Lee, S.M., Oh, D.J., Jung, I.D., Jung, P.G., Chung, K.H., Jang, W.I., Ko, J.S., Evaluation of the waterproof ability of a hydrophobic nickel micromesh with array-type microholes. J. Micromech. Microeng., 19, 2009, 125024.
21. [21] Shin, Y.M., Lee, S.K., Lee, J.Y., Kim, J.H., Park, J.H., Ji, C.H., Microfabricated environmental barrier using ZnO nanowire on metal mesh. J. Micromech. Microeng., 23, 2013, 127001.
22. [22] Park, K.-C., Chhatre, S.S., Srinivasan, S., Cohen, R.E., McKinley, G.H., Optimal design of permeable fiber network structures for fog harvesting. Langmuir 29 (2013), 13269–13277.
23. [23] Geraldi, N.R., McHale, G., Xu, B.B., Wells, G.G., Dodd, L.E., Wood, D., Newton, M.I., Leidenfrost transition temperature for stainless steel meshes. Mater. Lett. 176 (2016), 205–208.
24. [24] Jiang, Z.X., Geng, L., Huang, Y.D., Design and fabrication of hydrophobic copper mesh with striking loading capacity and pressure resistance. J. Phys. Chem. C 114 (2010), 9370–9378.
25. [25] Jiang, Z.X., Geng, L., Huang, Y.D., Fabrication of superhydrophobic 3-D braided carbon fiber fabric boat. Mater. Lett. 64 (2010), 2441–2443.
26. [26] Pan, Q., Wang, M., Miniature boats with striking loading capacity fabricated from superhydrophobic copper meshes. ACS Appl. Mater. Interfaces 1 (2009), 420–423.
27. [27] Jiang, Z.X., Geng, L., Huang, Y.D., Guan, S.A., Dong, W., Ma, Z.Y., The model of rough wetting for hydrophobic steel meshes that mimic Asparagus setaceus leaf. J. Colloid Interface Sci. 354 (2011), 866–872.
28. [28] Chhatre, S.S., Choi, W., Tuteja, A., Park, K.-C., Mabry, J.M., McKinley, G.H., Cohen, R.E., Scale dependence of omniphobic mesh surfaces. Langmuir 26 (2010), 4027–4035.
29. [29] Emami, B., Tafreshi, H.V., Gad-el-Hak, M., Tepper, G.C., Effect of fiber orientation on shape and stability of air–water interface on submerged superhydrophobic electrospun thin coatings. J. Appl. Phys., 111, 2012, 064325.
30. [30] Bucher, T.M., Emami, B., Tafreshi, H.V., Gad-el-Hak, M., Tepper, G.C., Resistance of nanofibrous superhydrophobic coatings to hydrostatic pressure: the role of microstructure. Phys. Fluids, 24, 2012, 022109.
31. [31] Extrand, C.W., Criteria for ultralyophobic surfaces. Langmuir 20 (2004), 5013–5018.
32. [32] Emami, B., Bucher, T.M., Tafreshi, H.V., Pestov, D., Gad-el-Hak, M., Tepper, G.C., Simulation of meniscus stability in superhydrophobic granular surfaces under hydrostatic pressure. Colloids Surf. A 385 (2011), 95–103.
33. [33] Rawal, A., Design parameters for a robust superhydrophobic electrospun nonwoven mat. Langmuir 28 (2012), 3285–3289.
34. [34] Amrei, M.M., Tafreshi, H.V., Effects of hydrostatic pressure on wetted area of submerged superhydrophobic granular coatings. Part 1: mono-dispersed coatings. Colloids Surf. A, 465, 2015, 87.
35. [35] Tuteja, A., Choi, W., Mabry, J.M., McKinley, G.H., Cohen, R.E., Robust omniphobic surfaces. Proc. Natl. Acad. Sci. U. S. A., 105, 2008, 18200.
36. [36] Brakke, K.A., The surface evolver and the stability of liquid surfaces. Philos. Trans. R. Soc. Lond. A 354 (1996), 2143–2157.
37. [37] deGennes, P.G., Brochard-Wyart, F., Quéré, D., Capillarity and Wetting Phenomena: Drops, Bubbles, Pearls, Waves. 2004, Springer-Verlag, New York.
38. [38] Bucher, T.M., Amrei, M.M., Tafreshi, H.V., Wetting resistance of heterogeneous superhydrophobic coatings with orthogonally layered fibers. Surf. Coat. Technol. 277 (2015), 117–127.
39. [39] Haase, A.S., Karatay, E., Tsai, P.A., Lammertink, R.G.H., Momentum and mass transport over a bubble mattress: the influence of interface geometry. Soft Matter 9 (2013), 8949–8957.
40. [40] Yang, X., Zheng, Z.C., Effects of channel scale on slip length of flow in micro/nanochannels. J. Fluids Eng. 132 (2010), 061201–061206.