Enhancement of tetracycline removal in aquatic environment by nano-pyrite/H_۲ O_۲/ultrasound as a sono-Fenton process

Elham Aseman-Bashiz; Hossein Sayyaf

Enhancement of tetracycline removal in aquatic environment by nano-pyrite/H_2 O_2/ultrasound as a sono-Fenton process

Publish place: Journal of Water and Environmental Nanotechnology، Vol: 8، Issue: 2

Publish Year: 1402

Type: Journal paper

Language: English

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Link to this Paper:

https://civilica.com/doc/1676786

Document National Code:

JR_JWENT-8-2_007

Index date: 17 June 2023

Enhancement of tetracycline removal in aquatic environment by nano-pyrite/H_2 O_2/ultrasound as a sono-Fenton process abstract

This study was conducted with the aim of introducing a new sono-Fenton system containing nano-pyrite catalyst and hydrogen peroxide (HP) for the effective removal of tetracycline (TC) from aqueous solutions. The synthesized nano-pyrite was characterized through XRD, FTIR, FE-SEM, and EDX analyses. The best performance of the sono-Fenton nano-pyrite/HP system was observed under the condition of pH 3.0, TC 8.0 mg/L, HP 4.0 mM, ultrasound (US) 40 W, nano-pyrite 1.0 g/L, and 20 min with 93.1% removal efficiency. Comparison of the efficiency of the proposed system components confirmed the remarkable synergy between sono-catalysis and Fenton reactions due to the simultaneous application of nano-pyrite, HP, and US power. Meanwhile, US irradiation caused fluidization, turbulence, mass transfer, and nano-pyrite surface cleaning due to its cavitation and oscillation effects. According to the tracer test, the main agent of TC degradation in the sono-Fenton process was HO^•. The results showed that the TC removal efficiency from the first to the fourth run reached from 93.1% to 70.3%. This means that the recyclability of nano-pyrite has been very successful. Overall, the proposed sono-Fenton system was an efficient and sustainable process for the rapid and effective removal of pharmaceutical contaminants from water and wastewater.

Enhancement of tetracycline removal in aquatic environment by nano-pyrite/H_2 O_2/ultrasound as a sono-Fenton process Keywords:

Hydrogen peroxide , Nano-pyrite , Sono-Fenton , Tetracycline , Ultrasound

Enhancement of tetracycline removal in aquatic environment by nano-pyrite/H_2 O_2/ultrasound as a sono-Fenton process authors

Elham Aseman-Bashiz

Environmental Health Engineering Lecturer, Alifard (SANICH) Institute of Applied Nscience and Technology, Hashtgerd, Alborz, Iran

Hossein Sayyaf

Environmental Health Engineering Lecturer, Alifard (SANICH) Institute of Applied Nscience and Technology, Hashtgerd, Alborz, Iran

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