Journal of Advanced Research · 2019 · 110 citations · 56 references
EngineeringChemical EngineeringPetroleum EngineeringMaterials ChemistryPolymer ChemistrySurface ScienceAdsorption ProcessesAdsorptive SeparationsGraphene NanomaterialsPetroleum Hydrocarbon RemediationPolymer FoamsSurface AdsorptionAdsorption CapacityAdsorption IsothermsAdsorption KineticsAdsorption MechanismsNatural RubberPetroleum SpillsReduced Graphene OxideSorbent Materials
). The adsorption capacity was optimal for 0.5 phr rGO (NRG-0.5). Further, the environmental conditions (temperature and waves) affected the oil adsorption capacity of the sorbent materials. The adsorption kinetics of the sorbent materials for crude AXL oil was best described with pseudo-second-order kinetics. The interparticle diffusion model revealed three steps whereas the adsorption isotherms approximated the Langmuir isotherms. Moreover, the oil adsorption mechanisms of the NR and NRG sorbent materials were compared to that of a commercial sorbent. The high elasticity of the NRG-0.5 composite foam improved not only the oil adsorption capacity but also the reusability of the sorbent material. The presence of rGO increased the strength of the NRG-0.5 compared to that of pure NR, which resulted in a high-performance and reusable material with an oil removal efficiency higher than 70% after 30 uses.
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Pseudo-second order model for sorption processes
Yuh‐Shan Ho, Gordon McKay · Process Biochemistry · 1999 · 17.2K citations
The reduction of graphene oxide
Songfeng Pei, Hui–Ming Cheng · Carbon · 2011 · 5.1K citations
Natural Sciences, Materials Engineering, Materials Science +10