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Robust and superhydrophobic coating highly resistant to wear and efficient in water/oil separation

Here, we report a straightforward and rapid process using fatty acids to produce a stable superhydrophobic hybrid composite coating on aluminium substrate which is highly resistant to wear under environmental conditions. Furthermore, this novel superhydrophobic metal surface is highly efficient at s...

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Published in:Surface & coatings technology 2019-04, Vol.364, p.330-340
Main Authors: Rius-Ayra, Oriol, Castellote-Alvarez, Roger, Escobar, Ana M., Llorca-Isern, Nuria
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Language:English
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cited_by cdi_FETCH-LOGICAL-c467t-651410436f589054aace9d73b700b9d50c0c5cf3885f928118c69b185b8326a43
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creator Rius-Ayra, Oriol
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description Here, we report a straightforward and rapid process using fatty acids to produce a stable superhydrophobic hybrid composite coating on aluminium substrate which is highly resistant to wear under environmental conditions. Furthermore, this novel superhydrophobic metal surface is highly efficient at separating of water/oil systems. The single-step process we adopt involves electrochemical deposition of ZnCl2, α-Al2O3 and lauric acid (C11H23COOH) onto commercial pure aluminium substrate. The resultant static contact angle (170°) and sliding angle (1°) are those of a superhydrophobic coating with self-cleaning properties; while chemical analysis shows that this is the result of generation of zinc laurate (Zn(C11H20COO)2) as a major compound that increases the superhydrophobic character of the coating, generating a flower-like structure 70 nm thick. Different wear tests show the coating is resistant to severe conditions, confirming its real potential against weathering, including sand and water erosion. Finally, a water/oil separation test determined 99% separation efficiency in hexane and ether petroleum systems, in a laboratory-made storage tank. [Display omitted] •A single-step process is used for generating a superhydrophobic composite coating.•α-Alumina enhances erosion resistance after several tests in severe conditions.•A laboratory-made tank presents high efficiency of water/oil separation.
doi_str_mv 10.1016/j.surfcoat.2019.01.077
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subjects Aluminum oxide
Chemical analysis
Coating
Composite
Contact angle
Deposició (Metal·lúrgia)
Electrochemistry
Electrodeposition
Electroquímica
Fatty acids
Hierarchical structure
Hybrid composites
Hydrophobic surfaces
Hydrophobicity
Lauric acid
Metal surfaces
Organic chemistry
Plating
Robust
Separation
Storage tanks
Substrates
Superfícies hidrofòbiques
Superhydrophobic
Water erosion
Water/oil separation
Wear
Wear resistance
Zinc chloride
title Robust and superhydrophobic coating highly resistant to wear and efficient in water/oil separation
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