4.7 Article

Active carbon-based waste packaging materials for uranium sorption from aqueous solution

Journal

ENVIRONMENTAL SCIENCE AND POLLUTION RESEARCH
Volume 30, Issue 30, Pages 74726-74741

Publisher

SPRINGER HEIDELBERG
DOI: 10.1007/s11356-023-27269-7

Keywords

Active carbon; Add-value waste; Packaging materials; Uranium sorption

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Waste accumulation, particularly packaging plastic and industrial water, is a significant global challenge. The combination of waste recycling science and water treatment knowledge has shown promising results in the safe disposal of waste plastic materials and wastewater. Activated carbons prepared from polyethylene terephthalate (PET) exhibit excellent dispersion and adsorption capacity, making them effective for removing radioactive elements from wastewater.
Waste (packaging plastic and industrial water) accumulation is one of the great global challenges over the world. Combining waste recycling science and water treatment knowledge are fascinating as applied sciences add value to the safe disposal of waste plastic packaging materials and wastewater. Active carbons (ACs) are prepared from polyethylene terephthalate (PET) at two pyrolysis temperatures (i.e. 450 and 500 degrees C) and compressed in well-defined designed molds to form cylinder shapes as applied in industry. Particle size (817 and 1074 nm), zeta potential (- 7.17 and - 25.6 mV), surface area (544 and 632 m2/g), and topography of prepared ACs were investigated and discussed. Zeta potential exhibited nice dispersion in accordance to charge value and surficial SEM images prove space hole filling with adsorbed materials after treatment. The prepared activated carbon sorbents have been applied for the removal of radioactive elements from wastewater. The displayed data declare that both sorbents have the same sorption performance, whereas the uranium sorption process using both sorbents is obeyed to pseudo-second-order kinetic model and Langmuir isotherm model. Nevertheless, it is worth noting that the prepared AC at a pyrolysis temperature of 500 degrees C exhibits higher sorption capacity (38.9 mg g(-1)) than that prepared at lower temperature, i.e., 450 degrees C (36.2 mg g(-1)) which indicates that the increase in pyrolysis temperature improves the sorption characteristics of the yield-activated carbon.

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