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. 2023 Feb 28;8(10):9004–9030. doi: 10.1021/acsomega.2c07719

Table 3. Different MOFs-Based Materials Utilized for the Elimination of Dyes from Wastewater.

MOF-based materials dyes removed preparation method initial concentration of dye (mg/L) surface area (m2/g) pore size (nm) removal rate pH performance ref
Ce(III)-doped UiO-67 nanoparticles Congo red solvothermal method >100 1911.9 80     displays adsorption capacity of 799.6 mg/g (150)
Fe-MIL-88NH2 Congo red solvothermal method 5–60     87.2%   reached the equilibrium in 60 min (151)
MOF@Ox-cotton hybrids MB infrared assisted method 50   55–125     shows adsorption capacity of 75.46–187.03 mg/g (152)
RhB
Co-MOF methyl orange solvothermal method 30 ppm     79.56% 4–5 displays adsorption capacity of 18.80 mg/g and 4.57 for reactive black and methyl orange, respectively (153)
reactive black 5
Ce-MOF@Fe3O4@activated carbon indigo carmine and methylene blue coprecipitation method 10     99% 7 shows maximum adsorption capacity of 85.5 and 84.9 mg/g for indigo carmine and methylene blue (154)
Sm-MOF/GO RhB in situ method 10     91%   rejection rate was maintained even after continuous 5.5 h filtration (155)
Cu-MOFs/Fe3O4 malachite green in situ method   35.4 3.5 90%   displays adsorption capacity of 113.76 mg/g (156)
MOF/porous carbon MB one-step carbonization treatment 200 1338 3.2     shows adsorption capacity of 2724 mg/g (157)
Zr-sulfonic @MOF MB solvothermal method 20     93% 7 shows maximum adsorption capacity of 1992 mg/g (158)
MIL101-Cr/PANI/Ag MB hydrothermal method 25 2861 153 97% 12 displays adsorption capacity of 43.29 mg/g (159)