Amoxicillin Oxidative Degradation Synthesized by Nano Zero Valent Iron

Introduction: Amoxicillin is one of the most important groups of pharmaceuticals that benefits humans and animals. However, antibiotics excertion in wastewaters and environment have emerged as a serious risk to the biotic environment, and their toxic effects can harm the organisms. Iron-based metall...

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Main Authors: AR Yazdanbakhsh, M Rafiee, H Daraei, H Kamali
Format: Article
Language:fas
Published: Shahid Sadoughi University of Medical Sciences 2016-03-01
Series:Majallah-i Dānishgāh-i ’Ulūm-i Pizishkī-i Shahīd Ṣadūqī Yazd
Subjects:
Online Access:http://jssu.ssu.ac.ir/browse.php?a_code=A-10-2411-1&slc_lang=en&sid=1
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author AR Yazdanbakhsh
M Rafiee
H Daraei
H Kamali
author_facet AR Yazdanbakhsh
M Rafiee
H Daraei
H Kamali
author_sort AR Yazdanbakhsh
collection DOAJ
description Introduction: Amoxicillin is one of the most important groups of pharmaceuticals that benefits humans and animals. However, antibiotics excertion in wastewaters and environment have emerged as a serious risk to the biotic environment, and their toxic effects can harm the organisms. Iron-based metallic nanoparticles have received special attention in regard with remediation of groundwater contaminants. In the typical nZVI-based bimetallic particle system, Fe acts as the reducing agent. Thus, the present study aimed to evaluate the synthesis and characteristics of nZVI in regard with degrading AMX. Methods: In this study, nZVI nanoparticles were synthesized using the liquid-phase reduction method by EDTA as a stabilizer material. Structure and properties of nanoparticles were characterized by BET, SEM, XRD and EDX analysis. A multi-variate analysis was applied using a response surface methodology (RSM) in order to develop a quadratic model as a functional relationship between AMX removal efficiency and independent variables ( initial pH values, dosage of nZVI, contact time and amoxicillin concentration). The four independent variables of solution pH (2–10), AMX concentration (5-45mg/l), contact time (5-85 min) and nanoparticles dose (0.25 – 1.25 g) were transformed to the coded values. Results: The study results demonstrated that more than 69 % of AMX was removed by nZVI. The optimal AMX removal conditions using nZVI were found as 1.25 g of nZVI, pH 4, contact time of 80 min and concentration of 30 mg/l. Conclusions: The ability of nZVI in degradation of AMX revealed that these materials can serve as a potential nano material with respect to the environmental remediation.
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spelling doaj.art-3f50084129124c1fb9d4fd04ab50fcaa2022-12-21T18:29:40ZfasShahid Sadoughi University of Medical SciencesMajallah-i Dānishgāh-i ’Ulūm-i Pizishkī-i Shahīd Ṣadūqī Yazd2228-57412228-57332016-03-01231211551168Amoxicillin Oxidative Degradation Synthesized by Nano Zero Valent IronAR Yazdanbakhsh0M Rafiee1H Daraei2H Kamali3 Department of Environmental Health Engineering Department of Environmental Health Engineering Students research office School of Medicine Introduction: Amoxicillin is one of the most important groups of pharmaceuticals that benefits humans and animals. However, antibiotics excertion in wastewaters and environment have emerged as a serious risk to the biotic environment, and their toxic effects can harm the organisms. Iron-based metallic nanoparticles have received special attention in regard with remediation of groundwater contaminants. In the typical nZVI-based bimetallic particle system, Fe acts as the reducing agent. Thus, the present study aimed to evaluate the synthesis and characteristics of nZVI in regard with degrading AMX. Methods: In this study, nZVI nanoparticles were synthesized using the liquid-phase reduction method by EDTA as a stabilizer material. Structure and properties of nanoparticles were characterized by BET, SEM, XRD and EDX analysis. A multi-variate analysis was applied using a response surface methodology (RSM) in order to develop a quadratic model as a functional relationship between AMX removal efficiency and independent variables ( initial pH values, dosage of nZVI, contact time and amoxicillin concentration). The four independent variables of solution pH (2–10), AMX concentration (5-45mg/l), contact time (5-85 min) and nanoparticles dose (0.25 – 1.25 g) were transformed to the coded values. Results: The study results demonstrated that more than 69 % of AMX was removed by nZVI. The optimal AMX removal conditions using nZVI were found as 1.25 g of nZVI, pH 4, contact time of 80 min and concentration of 30 mg/l. Conclusions: The ability of nZVI in degradation of AMX revealed that these materials can serve as a potential nano material with respect to the environmental remediation.http://jssu.ssu.ac.ir/browse.php?a_code=A-10-2411-1&slc_lang=en&sid=1Amoxicillin Nanoparticles NZVI Stabilize Synthesize
spellingShingle AR Yazdanbakhsh
M Rafiee
H Daraei
H Kamali
Amoxicillin Oxidative Degradation Synthesized by Nano Zero Valent Iron
Majallah-i Dānishgāh-i ’Ulūm-i Pizishkī-i Shahīd Ṣadūqī Yazd
Amoxicillin
Nanoparticles
NZVI
Stabilize
Synthesize
title Amoxicillin Oxidative Degradation Synthesized by Nano Zero Valent Iron
title_full Amoxicillin Oxidative Degradation Synthesized by Nano Zero Valent Iron
title_fullStr Amoxicillin Oxidative Degradation Synthesized by Nano Zero Valent Iron
title_full_unstemmed Amoxicillin Oxidative Degradation Synthesized by Nano Zero Valent Iron
title_short Amoxicillin Oxidative Degradation Synthesized by Nano Zero Valent Iron
title_sort amoxicillin oxidative degradation synthesized by nano zero valent iron
topic Amoxicillin
Nanoparticles
NZVI
Stabilize
Synthesize
url http://jssu.ssu.ac.ir/browse.php?a_code=A-10-2411-1&slc_lang=en&sid=1
work_keys_str_mv AT aryazdanbakhsh amoxicillinoxidativedegradationsynthesizedbynanozerovalentiron
AT mrafiee amoxicillinoxidativedegradationsynthesizedbynanozerovalentiron
AT hdaraei amoxicillinoxidativedegradationsynthesizedbynanozerovalentiron
AT hkamali amoxicillinoxidativedegradationsynthesizedbynanozerovalentiron