Photocatalytic oxidation of six pesticides listed as endocrine disruptor chemicals from wastewater using two different TiO^sub 2^ samples at pilot plant scale under sunlight irradiation

The photocatalyzed degradation of a mixture of six pesticides (malathion, fenotrothion, quinalphos, vinclozoline, dimethoate and fenarimol) with endocrine disrupting activity has been studied in sewage wastewater effluent under natural sunlight at pilot plant scale. The initial level of each pestici...

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Veröffentlicht in:Journal of photochemistry and photobiology. A, Chemistry. Chemistry., 2018-02, Vol.353, p.271
Hauptverfasser: Vela, Nuria, Calín, May, Yáñez-Gascón, María J, Garrido, Isabel, Pérez-Lucas, Gabriel, Fenoll, José, Navarro, Simón
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container_title Journal of photochemistry and photobiology. A, Chemistry.
container_volume 353
creator Vela, Nuria
Calín, May
Yáñez-Gascón, María J
Garrido, Isabel
Pérez-Lucas, Gabriel
Fenoll, José
Navarro, Simón
description The photocatalyzed degradation of a mixture of six pesticides (malathion, fenotrothion, quinalphos, vinclozoline, dimethoate and fenarimol) with endocrine disrupting activity has been studied in sewage wastewater effluent under natural sunlight at pilot plant scale. The initial level of each pesticide was 0.30 mg L-1. For this, two commercial TiO2 nanopowders (Degussa P25 and Kronos vlp 7000) were used as photocatalysts. The operational conditions (catalyst loading, effect of electron acceptor and pH) were previously optimized under laboratory conditions using a photoreactor. The results show that the use of TiO2 alongside an electron acceptor like Na2S2O8 strongly enhances the degradation rate of the studied pesticides compared with photolytic tests, especially Degussa P25. The photodegradation process followed pseudo-first order kinetics in all cases. In our experimental conditions, the necessary time necessary for 90% degradation (DT90) varied from 79 to 1270 min (6-108 min as normalized illumination time, t30W) for malathion and fenarimol, respectively for TiO2 vlp 7000 and 32-817 min (t30W = 3-69 min) for the same pesticides, in the case of TiO2 P25. The results confirm the efficacy of the treatment to remove recalcitrant pollutants from wastewater using natural sunlight as renewable source.
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The initial level of each pesticide was 0.30 mg L-1. For this, two commercial TiO2 nanopowders (Degussa P25 and Kronos vlp 7000) were used as photocatalysts. The operational conditions (catalyst loading, effect of electron acceptor and pH) were previously optimized under laboratory conditions using a photoreactor. The results show that the use of TiO2 alongside an electron acceptor like Na2S2O8 strongly enhances the degradation rate of the studied pesticides compared with photolytic tests, especially Degussa P25. The photodegradation process followed pseudo-first order kinetics in all cases. In our experimental conditions, the necessary time necessary for 90% degradation (DT90) varied from 79 to 1270 min (6-108 min as normalized illumination time, t30W) for malathion and fenarimol, respectively for TiO2 vlp 7000 and 32-817 min (t30W = 3-69 min) for the same pesticides, in the case of TiO2 P25. 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subjects Dimethoate
Effluents
Endocrine disruptors
Irradiation
Kinetics
Malathion
Oxidation
Pesticides
Photocatalysis
Photodegradation
Photooxidation
Pilot plants
Pollutant removal
Pollutants
Quinalphos
Radiation
Reaction kinetics
Sewage
Sodium persulfate
Sunlight
Titanium dioxide
Wastewater
Wastewater pollution
Wastewater treatment
title Photocatalytic oxidation of six pesticides listed as endocrine disruptor chemicals from wastewater using two different TiO^sub 2^ samples at pilot plant scale under sunlight irradiation
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