Enhanced adsorptive removal of p-nitrophenol from water by aluminum metal–organic framework/reduced graphene oxide composite

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作者
Zhibin Wu
Xingzhong Yuan
Hua Zhong
Hou Wang
Guangming Zeng
Xiaohong Chen
Hui Wang
Lei zhang
Jianguang Shao
机构
[1] College of Environmental Science and Engineering,Department of Soil
[2] Hunan University,undefined
[3] Key Laboratory of Environment Biology and Pollution Control,undefined
[4] Hunan University,undefined
[5] Ministry of Education,undefined
[6] Water and Environmental Science,undefined
[7] the University of Arizona,undefined
[8] Hunan University of Commerce,undefined
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In this study, the composite of aluminum metal–organic framework MIL-68(Al) and reduced graphene oxide (MA/RG) was synthesized via a one–step solvothermal method, and their performances for p–nitrophenol (PNP) adsorption from aqueous solution were systematically investigated. The introduction of reduced graphene oxide (RG) into MIL-68(Al) (MA) significantly changes the morphologies of the MA and increases the surface area. The MA/RG-15% prepared at RG-to-MA mass ratio of 15% shows a PNP uptake rate 64% and 123% higher than MIL-68(Al) and reduced graphene oxide (RG), respectively. The hydrogen bond and π – π dispersion were considered to be the major driving force for the spontaneous and endothermic adsorption process for PNP removal. The adsorption kinetics, which was controlled by film–diffusion and intra–particle diffusion, was greatly influenced by solution pH, ionic strength, temperature and initial PNP concentration. The adsorption kinetics and isotherms can be well delineated using pseudo–second–order and Langmuir equations, respectively. The presence of phenol or isomeric nitrophenols in the solution had minimal influence on PNP adsorption by reusable MA/RG composite.
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