Citation: | LIU Qiuping, ZHANG Lingyan, QIU Yangshuai, WANG Jing, ZHOU Yanhong. Application Progress on Graphene Modified Anti-corrosion Coatings[J]. Conservation and Utilization of Mineral Resources, 2020, 40(3): 153-160. doi: 10.13779/j.cnki.issn1001-0076.2020.03.024 |
In this paper, structure, properties and common preparation methods of the graphene were briefly introduced. The preparation methods and influencing factors of graphene modified anti-corrosion coatings were summarized. Meanwhile, an overview of the anti-corrosion mechanism of graphene modified anti-corrosion coatings was provided. Finally, the bottleneck problem of the future development of graphene anticorrosive coatings was raised.
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Structure and morphology of graphene: (a) Pleats of graphene; (b) Serrated edge GNR and armchair edge GNR [10]
Schematic diagram of the electrochemical stripping process of graphene [44]
Preparation process of aluminum alloy (AA) polymer (PVB)-graphene (G) composite anticorrosive coating [47]
Average friction coefficient curve for different samples [61]
Wear marks photomicrograph of pure epoxy resin: (a) P2BA0.5% (b) P2BA0.5%-G0.5% (c) and P2BA0.5%-G0.5% sample (d) [61]
Orientation of magnetic graphene in uniform magnetic field [65]
Schematic of corrosion protection mechanism for pure coating and GO-a/EP composite coatings and GO-a / EP composite coatings[72]
Schematic diagram of the barrier effect of graphene. (a) shielding of single layer graphene; (b) grapheme anticorrosive polymer coating[74-75]
Conductivity mechanism of graphene[29]
Schematic diagram of the mechanism by which oriented (MG/Zn-MF) and unoriented (MF/Zn) magnetic graphene affecting the type of zinc in zinc-rich coatings[79]