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Novelty g-C3N4/HAp composite as highly effective photocatalyst for Cr (VI) photoreduction

[Display omitted] •Cr(VI) is a dangerous heavy metal found as contaminant in wastewater.•Cr(VI) can be reduced to Cr(III) by photocatalysis using semiconductors materials.•g-C3N4/HAp composite was obtained by precipitation and thermal condensation methods.•g-C3N4/HAp composite shows very high activi...

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Published in:Catalysis today 2022-04, Vol.388-389 (C), p.168-175
Main Authors: Jiménez-Flores, Y., Jiménez-Rangel, K., Samaniego-Benítez, J.E., Lartundo-Rojas, L., Calderón, H.A., Gómez, R., Mantilla, A.
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cited_by cdi_FETCH-LOGICAL-c379t-ee3baf80d47e934009767ee3ecd4b118e85da069136408b1274c05b4a5c45ec33
cites cdi_FETCH-LOGICAL-c379t-ee3baf80d47e934009767ee3ecd4b118e85da069136408b1274c05b4a5c45ec33
container_end_page 175
container_issue C
container_start_page 168
container_title Catalysis today
container_volume 388-389
creator Jiménez-Flores, Y.
Jiménez-Rangel, K.
Samaniego-Benítez, J.E.
Lartundo-Rojas, L.
Calderón, H.A.
Gómez, R.
Mantilla, A.
description [Display omitted] •Cr(VI) is a dangerous heavy metal found as contaminant in wastewater.•Cr(VI) can be reduced to Cr(III) by photocatalysis using semiconductors materials.•g-C3N4/HAp composite was obtained by precipitation and thermal condensation methods.•g-C3N4/HAp composite shows very high activity for Cr(VI) photoreduction.•Total Cr(VI) photoreduction (40 ppm) was get using UV and visible ligth irradiation. A novelty g-C3N4/HAp composite photocatalyst was synthetized by precipitation and thermal condensation methods. The composite photocatalyst was studied by XRD technique confirming the presence of both phases in the composite. By FTIR and XPS techniques, the chemical bonds present in the photocatalyst and its components were analyzed. Electron microscopy shows a fine mixture of phases, preserving the lamellar structure of hydroxyapatite. The change in the optical properties of the photocatalyst was investigated by means of UV–vis spectroscopy and its photocatalytic behavior was evaluated for the photoreduction of Cr (VI) in presence of UV and visible light irradiation. g-C3N4/HAp composite showed an increase in its ability to reduce Cr (VI), reaching a total reduction (40 ppm solution) after 25 and 210 min for UV and visible irradiation, respectively. The increase in the photocatalytic activity can be attributed to a synergistic effect produced by the interaction between g-C3N4 and hydroxyapatite.
doi_str_mv 10.1016/j.cattod.2020.07.045
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A novelty g-C3N4/HAp composite photocatalyst was synthetized by precipitation and thermal condensation methods. The composite photocatalyst was studied by XRD technique confirming the presence of both phases in the composite. By FTIR and XPS techniques, the chemical bonds present in the photocatalyst and its components were analyzed. Electron microscopy shows a fine mixture of phases, preserving the lamellar structure of hydroxyapatite. The change in the optical properties of the photocatalyst was investigated by means of UV–vis spectroscopy and its photocatalytic behavior was evaluated for the photoreduction of Cr (VI) in presence of UV and visible light irradiation. g-C3N4/HAp composite showed an increase in its ability to reduce Cr (VI), reaching a total reduction (40 ppm solution) after 25 and 210 min for UV and visible irradiation, respectively. 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subjects Composite materials
Cr (VI) photoreduction
g-C3N4
Hydroxyapatite
Photocatalysis
title Novelty g-C3N4/HAp composite as highly effective photocatalyst for Cr (VI) photoreduction
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