Cargando…

H(2)O(2) activated moxa ash via ball milling for ultrafast removal of mitoxantrone

As emerging contaminants, antineoplastic drugs are widely used, but their residues in water may cause long-term genotoxicity to aquatic organisms and human beings. Here, waste moxa ash was selected as biomass raw material and modified by ball milling to obtain carbon-based materials with excellent a...

Descripción completa

Detalles Bibliográficos
Autores principales: Cai, Wanqian, Zhang, Chongbiao, Wu, Yourong, Wang, Wei, Lin, Mei, Lin, Tengfei, Lin, Cong, Gao, Min, Zhao, Chunlin, Wu, Xiao
Formato: Online Artículo Texto
Lenguaje:English
Publicado: The Royal Society of Chemistry 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10102883/
https://www.ncbi.nlm.nih.gov/pubmed/37063737
http://dx.doi.org/10.1039/d3ra00988b
_version_ 1785025780494893056
author Cai, Wanqian
Zhang, Chongbiao
Wu, Yourong
Wang, Wei
Lin, Mei
Lin, Tengfei
Lin, Cong
Gao, Min
Zhao, Chunlin
Wu, Xiao
author_facet Cai, Wanqian
Zhang, Chongbiao
Wu, Yourong
Wang, Wei
Lin, Mei
Lin, Tengfei
Lin, Cong
Gao, Min
Zhao, Chunlin
Wu, Xiao
author_sort Cai, Wanqian
collection PubMed
description As emerging contaminants, antineoplastic drugs are widely used, but their residues in water may cause long-term genotoxicity to aquatic organisms and human beings. Here, waste moxa ash was selected as biomass raw material and modified by ball milling to obtain carbon-based materials with excellent adsorption performance, which were used to remove the antineoplastic drug mitoxantrone (MTX) from water. The experimental results indicate that moxa ash modified by ball milling in hydrogen peroxide exhibits ultrafast removal of MTX (the removal efficiency reaches 97.66% in 1 min and 99.72% in 30 min). The pseudo-second-order kinetics and Freundlich isotherm models accurately describe the MTX adsorption process, and the mechanism of adsorption probably involves pore filling, hydrogen bond, π–π interaction and electrostatic attraction. Not only that, moxa ash also has the ability to remove dyes such as malachite green (97.81%) and methylene blue (99.97%). In this study, a simple and environmentally friendly process was used to convert waste moxa ash into an effective MTX adsorbent, providing a feasible solution for controlling MTX pollution and identifying a circular and economic way to reuse the waste.
format Online
Article
Text
id pubmed-10102883
institution National Center for Biotechnology Information
language English
publishDate 2023
publisher The Royal Society of Chemistry
record_format MEDLINE/PubMed
spelling pubmed-101028832023-04-15 H(2)O(2) activated moxa ash via ball milling for ultrafast removal of mitoxantrone Cai, Wanqian Zhang, Chongbiao Wu, Yourong Wang, Wei Lin, Mei Lin, Tengfei Lin, Cong Gao, Min Zhao, Chunlin Wu, Xiao RSC Adv Chemistry As emerging contaminants, antineoplastic drugs are widely used, but their residues in water may cause long-term genotoxicity to aquatic organisms and human beings. Here, waste moxa ash was selected as biomass raw material and modified by ball milling to obtain carbon-based materials with excellent adsorption performance, which were used to remove the antineoplastic drug mitoxantrone (MTX) from water. The experimental results indicate that moxa ash modified by ball milling in hydrogen peroxide exhibits ultrafast removal of MTX (the removal efficiency reaches 97.66% in 1 min and 99.72% in 30 min). The pseudo-second-order kinetics and Freundlich isotherm models accurately describe the MTX adsorption process, and the mechanism of adsorption probably involves pore filling, hydrogen bond, π–π interaction and electrostatic attraction. Not only that, moxa ash also has the ability to remove dyes such as malachite green (97.81%) and methylene blue (99.97%). In this study, a simple and environmentally friendly process was used to convert waste moxa ash into an effective MTX adsorbent, providing a feasible solution for controlling MTX pollution and identifying a circular and economic way to reuse the waste. The Royal Society of Chemistry 2023-04-14 /pmc/articles/PMC10102883/ /pubmed/37063737 http://dx.doi.org/10.1039/d3ra00988b Text en This journal is © The Royal Society of Chemistry https://creativecommons.org/licenses/by-nc/3.0/
spellingShingle Chemistry
Cai, Wanqian
Zhang, Chongbiao
Wu, Yourong
Wang, Wei
Lin, Mei
Lin, Tengfei
Lin, Cong
Gao, Min
Zhao, Chunlin
Wu, Xiao
H(2)O(2) activated moxa ash via ball milling for ultrafast removal of mitoxantrone
title H(2)O(2) activated moxa ash via ball milling for ultrafast removal of mitoxantrone
title_full H(2)O(2) activated moxa ash via ball milling for ultrafast removal of mitoxantrone
title_fullStr H(2)O(2) activated moxa ash via ball milling for ultrafast removal of mitoxantrone
title_full_unstemmed H(2)O(2) activated moxa ash via ball milling for ultrafast removal of mitoxantrone
title_short H(2)O(2) activated moxa ash via ball milling for ultrafast removal of mitoxantrone
title_sort h(2)o(2) activated moxa ash via ball milling for ultrafast removal of mitoxantrone
topic Chemistry
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10102883/
https://www.ncbi.nlm.nih.gov/pubmed/37063737
http://dx.doi.org/10.1039/d3ra00988b
work_keys_str_mv AT caiwanqian h2o2activatedmoxaashviaballmillingforultrafastremovalofmitoxantrone
AT zhangchongbiao h2o2activatedmoxaashviaballmillingforultrafastremovalofmitoxantrone
AT wuyourong h2o2activatedmoxaashviaballmillingforultrafastremovalofmitoxantrone
AT wangwei h2o2activatedmoxaashviaballmillingforultrafastremovalofmitoxantrone
AT linmei h2o2activatedmoxaashviaballmillingforultrafastremovalofmitoxantrone
AT lintengfei h2o2activatedmoxaashviaballmillingforultrafastremovalofmitoxantrone
AT lincong h2o2activatedmoxaashviaballmillingforultrafastremovalofmitoxantrone
AT gaomin h2o2activatedmoxaashviaballmillingforultrafastremovalofmitoxantrone
AT zhaochunlin h2o2activatedmoxaashviaballmillingforultrafastremovalofmitoxantrone
AT wuxiao h2o2activatedmoxaashviaballmillingforultrafastremovalofmitoxantrone