Blended mangosteen/pomegranate peels as a precursor for porous carbon material via microwave assisted‑potassium carbonate activation: Box-Benken design optimization for fuchsin basic and methylene violet dyes removal
Solid waste disposal and water pollution are the critical issues. Thus, this work aims to convert common domestic fruit wastes namely mangosteen peel (MP) and pomegranate peel (PP) into a mesoporous activated carbon (MPPP-AC) via microwave-induced strong alkaline salt (K2CO3) activation. The potenti...
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2025
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2-s2.0-85211314403 Irwan S.A.; Jawad A.H.; Deris R.R.R.; Musa S.A.; Wu R.; ALOthman Z.A. Blended mangosteen/pomegranate peels as a precursor for porous carbon material via microwave assisted‑potassium carbonate activation: Box-Benken design optimization for fuchsin basic and methylene violet dyes removal 2025 Diamond and Related Materials 151 10.1016/j.diamond.2024.111846 https://www.scopus.com/inward/record.uri?eid=2-s2.0-85211314403&doi=10.1016%2fj.diamond.2024.111846&partnerID=40&md5=60a92fea976d02ea1e2d03a527a00796 Solid waste disposal and water pollution are the critical issues. Thus, this work aims to convert common domestic fruit wastes namely mangosteen peel (MP) and pomegranate peel (PP) into a mesoporous activated carbon (MPPP-AC) via microwave-induced strong alkaline salt (K2CO3) activation. The potential application of MPPP-AC was tested for the removal of two structurally different toxic cationic dyes namely fuchsin basic (FB) and methylene violet (MV). The physicochemical properties of MPPP-AC were analyzed utilizing several analyses such as XRD, SEM-EDX FTIR, pHpzc, and BET analysis. The adsorptive performance of MPPP-AC was optimized by using response surface methodology (RSM) with Box-Behnken design (BBD). Three key adsorption variables including the dose of MPPP-AC (A: 0.02–0.1 g/100 mL), solution pH (B: 4–10), and time of contact (C: 10–60 min) were optimized in the BBD. The highest FB removal and MV removal were found to be 80.2 % and 92.8 % respectively at 0.1 g/100 mL of MPPP-AC dosage and solution pH = 10. Thus, the best fit for the adsorption isotherm data for FB and MV dyes was the Freundlich model, whereas the pseudo-second-order model was best explained for the kinetic data. The MPPP-AC has maximum adsorption capacity for FB (85.5 mg/g) and MV (90.1 mg/g). Various forms of interaction were involved in the MV and FB dye binding process onto MPPP-AC such as the filling of pores, π-π stacking, hydrogen bonding, and electrostatic forces. The finding of this research exhibits the possibility of transforming a blending of MP and PP wastes into activated carbon which shows desirable adsorptive performance for eliminating cationic dyes from water. © 2024 Elsevier B.V. Elsevier Ltd 09259635 English Article |
author |
Irwan S.A.; Jawad A.H.; Deris R.R.R.; Musa S.A.; Wu R.; ALOthman Z.A. |
spellingShingle |
Irwan S.A.; Jawad A.H.; Deris R.R.R.; Musa S.A.; Wu R.; ALOthman Z.A. Blended mangosteen/pomegranate peels as a precursor for porous carbon material via microwave assisted‑potassium carbonate activation: Box-Benken design optimization for fuchsin basic and methylene violet dyes removal |
author_facet |
Irwan S.A.; Jawad A.H.; Deris R.R.R.; Musa S.A.; Wu R.; ALOthman Z.A. |
author_sort |
Irwan S.A.; Jawad A.H.; Deris R.R.R.; Musa S.A.; Wu R.; ALOthman Z.A. |
title |
Blended mangosteen/pomegranate peels as a precursor for porous carbon material via microwave assisted‑potassium carbonate activation: Box-Benken design optimization for fuchsin basic and methylene violet dyes removal |
title_short |
Blended mangosteen/pomegranate peels as a precursor for porous carbon material via microwave assisted‑potassium carbonate activation: Box-Benken design optimization for fuchsin basic and methylene violet dyes removal |
title_full |
Blended mangosteen/pomegranate peels as a precursor for porous carbon material via microwave assisted‑potassium carbonate activation: Box-Benken design optimization for fuchsin basic and methylene violet dyes removal |
title_fullStr |
Blended mangosteen/pomegranate peels as a precursor for porous carbon material via microwave assisted‑potassium carbonate activation: Box-Benken design optimization for fuchsin basic and methylene violet dyes removal |
title_full_unstemmed |
Blended mangosteen/pomegranate peels as a precursor for porous carbon material via microwave assisted‑potassium carbonate activation: Box-Benken design optimization for fuchsin basic and methylene violet dyes removal |
title_sort |
Blended mangosteen/pomegranate peels as a precursor for porous carbon material via microwave assisted‑potassium carbonate activation: Box-Benken design optimization for fuchsin basic and methylene violet dyes removal |
publishDate |
2025 |
container_title |
Diamond and Related Materials |
container_volume |
151 |
container_issue |
|
doi_str_mv |
10.1016/j.diamond.2024.111846 |
url |
https://www.scopus.com/inward/record.uri?eid=2-s2.0-85211314403&doi=10.1016%2fj.diamond.2024.111846&partnerID=40&md5=60a92fea976d02ea1e2d03a527a00796 |
description |
Solid waste disposal and water pollution are the critical issues. Thus, this work aims to convert common domestic fruit wastes namely mangosteen peel (MP) and pomegranate peel (PP) into a mesoporous activated carbon (MPPP-AC) via microwave-induced strong alkaline salt (K2CO3) activation. The potential application of MPPP-AC was tested for the removal of two structurally different toxic cationic dyes namely fuchsin basic (FB) and methylene violet (MV). The physicochemical properties of MPPP-AC were analyzed utilizing several analyses such as XRD, SEM-EDX FTIR, pHpzc, and BET analysis. The adsorptive performance of MPPP-AC was optimized by using response surface methodology (RSM) with Box-Behnken design (BBD). Three key adsorption variables including the dose of MPPP-AC (A: 0.02–0.1 g/100 mL), solution pH (B: 4–10), and time of contact (C: 10–60 min) were optimized in the BBD. The highest FB removal and MV removal were found to be 80.2 % and 92.8 % respectively at 0.1 g/100 mL of MPPP-AC dosage and solution pH = 10. Thus, the best fit for the adsorption isotherm data for FB and MV dyes was the Freundlich model, whereas the pseudo-second-order model was best explained for the kinetic data. The MPPP-AC has maximum adsorption capacity for FB (85.5 mg/g) and MV (90.1 mg/g). Various forms of interaction were involved in the MV and FB dye binding process onto MPPP-AC such as the filling of pores, π-π stacking, hydrogen bonding, and electrostatic forces. The finding of this research exhibits the possibility of transforming a blending of MP and PP wastes into activated carbon which shows desirable adsorptive performance for eliminating cationic dyes from water. © 2024 Elsevier B.V. |
publisher |
Elsevier Ltd |
issn |
09259635 |
language |
English |
format |
Article |
accesstype |
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record_format |
scopus |
collection |
Scopus |
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1820775427944218624 |