Polymer Chemistry · 2013 · 444 citations · 51 references
Natural SciencesMaterials EngineeringMaterials ScienceNanomaterialsPolymer ChemistryPolymer MaterialsComposite MaterialsCorrosion ProtectionCorrosion-resistant MaterialsNanocompositesPolymer NanocompositesPolymeric NanomaterialsBond StrengthExfoliationGas Barrier PropertiesGraphene CompositesGraphene NanocompositesStorage ModulusThermal DecompositionThermal Stability
This paper presents the first successful application of vinyl polymer/graphene-based nanocomposites in corrosion protection. Well‑dispersed polystyrene (PS)/modified‑GO nanocomposites were successfully prepared using in situ miniemulsion polymerisation. The PS/modified‑GO nanocomposites exhibit superior anti‑corrosion performance, raising protection efficiency from 37.90 % to 99.53 % at 2 wt % GO, while also improving thermal stability (Td up to 372 °C) and mechanical strength (storage modulus up to 2802 MPa) due to near‑complete GO exfoliation and enhanced interfacial bonding.
This paper presents the first successful application of vinyl polymer/graphene-based nanocomposites in corrosion protection. Well-dispersed polystyrene (PS)/modified-GO nanocomposites were successfully prepared using in situ miniemulsion polymerisation. The as-prepared nanocomposites exhibit superior anti-corrosion properties compared with pure PS, in which the corrosion protection efficiency increased from 37.90% to 99.53% with the incorporation of 2 wt% modified GO in the PS polymer matrix. The thermal stability and mechanical properties also greatly improved compared with pure PS. The incorporation of 2 wt% modified GO in the PS polymer matrix increased the thermal decomposition temperature (Td) from approximately 298 to 372 °C, and the storage modulus increased from 1808.76 to 2802.36 MPa. This paper attributes the substantially improved properties to the nearly complete exfoliation of the modified-GO dispersion, which greatly enhanced the modified-GO/PS interfacial bond strength and gas barrier properties.
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