Removal of Cd, Pb and Cu from Water Using Thiol and Humic Acid Functionalized Fe2O3 Nanoparticles

文献类型： 外文期刊

第一作者： Wang Meng

作者： Wang Meng;Chen Shibao

作者机构：

关键词： functionalization;Fe2O3 nano-particles;Pb;Cd;Cu;adsorption

期刊名称：ADVANCES IN ENVIRONMENTAL SCIENCE AND ENGINEERING, PTS 1-6

ISSN： 1022-6680

年卷期： 2012 年 518-523 卷

页码：

收录情况： SCI

摘要： Humic acid (HA) and 3-Mercaptopropyltriethoxysilane (MPTES) were successfully coated onto the surface of Fe2O3 (alpha and gamma) nano-particles as characterized using IR and BET-N-2 analysis, the potential use of the naked and functionalized nano-Fe2O3 particles as novel nano-sorbents for removal of Cd, Pb and Cu ions in solution was investigated in this study. The result indicated that the sorption of Cd, Pb and Cu ions by the nano-particles can be fitted well using langmuir isotherm; all the adsorbents exhibited definitely adsorption ability to Cd, Pb and Cu ions in solution. The sorption maximum and sorption affinity on the nano-particles for Pb (aq) were always higher than Cu (aq) and Cd (aq), the sorption maxima for the Pb, Cd and Cu followed the order Pb>Cu>Cd. Among the nano-sorbents, the Fe2O3 (alpha and gamma) nano-particles coated with HA exhibited higher sorption ability to metal ions than the naked and thiolated Fe2O3 nano-particles, the sorption maxima of alpha-Fe2O3/HA for Pb(aq) reached 151.5 mg/g, which was significantly higher than the values of 116.3 and 84.0 mg/g observed for the alpha-Fe2O3 and alpha- Fe2O3/MPTES particles. However, no increased sorption maxima was observed for the thiolated Fe2O3 nano-particles (Fe2O3/MPTES) for the metal ions compared with the naked Fe2O3 nano-particles in this study. The greater capability of Fe2O3/HA to adsorb Cd(aq), Pb(aq), Cu(aq) indicates its potential use as another promising way to remediate metals-contaminated water.

分类号：

  • 相关文献

[1]Adsorption of aqueous Cd2+, Pb2+, Cu2+ ions by nano-hydroxyapatite: Single- and multi-metal competitive adsorption study. Chen, S. B.,Ma, Y. B.,Chen, S. B.,Chen, L.,Xian, K.. 2010

[2]Direct determination of Cu and Pb in edible L-lysine by graphite furnace atomic absorption spectrometry. Shan, F,Bian, JS. 2002

[3]Direct determination of Cu, Mn and Pb in wine and drink by GFAAS. Bian, JS,Shan, F,Li, YQ. 2000

[4]PHYTOEXTRACTION OF PB AND CU CONTAMINATED SOIL WITH MAIZE AND MICROENCAPSULATED EDTA. Xie, Zhiyi,Chen, Nengchang,Liu, Chengshuai,Zheng, Yuji,Xu, Shengguang,Li, Fangbai,Xu, Yanling,Xie, Zhiyi,Xie, Zhiyi,Wu, Longhua. 2012

[5]Tolerance and Removal Mechanisms of Heavy Metals by Fungus Pleurotus ostreatus HAAS. Yang, Suqin,Sun, Xiaoxue,Yang, Suqin,Li, Xuanzhen,Shen, Yanping,Chang, Cheng,Guo, Erhui,Zhao, Yong,Li, Xuanzhen,La, Guixiao.

[6]The Determination of Total N, Total P, Cu and Zn in Chicken Manure Using Near Infrared Reflectance Spectroscopy. Dong, Yiwei,Li, Yuzhong,Wang, Yanan,Li, Qiaozhen,Chen, Yongxing,Xu, Chunying,Bai, Wei,Dong, Yiwei,Zhu, Dazhou. 2011

[7]Effects of soil amendments on lead uptake by two vegetable crops from a lead-contaminated soil from Anhui, China. Zhu, YG,Chen, SB,Yang, JC. 2004

[8]Pb uptake and tolerance in the two selected mangroves with different root lignification and suberization. Cheng, Hao,Wang, You-Shao,Wu, Mei-Lin,Sun, Cui-Ci,Cheng, Hao,Wang, You-Shao,Wu, Mei-Lin,Sun, Cui-Ci,Liu, Yong,Ye, Zhi-Hong.

[9]Methodology Improvement in Background Elimination in Plant Cd Measurement by Graphite Furnace Atom Absorption. Feng Wen-qiang,Qin Yu-sheng,Chen Qing-rui,Zeng Xiang-zhong,Tu Shi-hua. 2009

[10]Cadmium-induced oxidative stress and response of the ascorbate-glutathione cycle in Bechmeria nivea (L.) Gaud. Liu, Yunguo,Wang, Xin,Zeng, Guangming,Qu, Dan,Gu, Jiajia,Zhou, Ming,Chal, Liyuan. 2007

[11]Tissue-specific accumulation of cadmium and its effects on antioxidative responses in Japanese flounder juveniles. Cao, Liang,Huang, Wei,Shan, Xiujuan,Dou, Shuozeng,Huang, Wei,Shan, Xiujuan,Ye, Zhenjiang.

[12]Thermal Effects on the Stability and Antioxidant Activity of an Acid Polysaccharide Conjugate Derived from Green Tea. Chen, Xiaoqiang,Ye, Yang,Cheng, Hao,Jiang, Yongwen,Wu, Yalin.

[13]Trace Elements and Heavy Metals in Asian Rice-Derived Food Products. Guo, Kai,Wells, Shenita,Han, Fengxiang X.,Arslan, Zikri,Sun, Hua,Zhang, Jiuquan.

[14]The bioaccumulation of Cd in rice grains in paddy soils as affected and predicted by soil properties. Ye, Xinxin,Wu, Liang,Sun, Bo,Ye, Xinxin,Li, Hongying,Ma, Yibing,Wu, Liang. 2014

[15]Coupling biological assays with diffusive gradients in thin-films technique to study the biological responses of Eisenia fetida to cadmium in soil. Gu, Xueyuan,Liu, Zhimin,Wang, Xiaorong,Luo, Jun,Ma, Lena Q.,Xue, Yingang,Liu, Zhimin,Zhang, Hao,Davison, William,Ma, Lena Q.,Xue, Yingang. 2017

[16]Cd accumulation and subcellular distribution in two ecotypes of Kyllinga brevifolia Rottb as affected by Cd treatments. Hao, Xiaoqing,Li, Tingxuan,Yu, Haiying,Zhang, Xizhou,Zheng, Zicheng,Chen, Guangdeng,Zhang, Shujin,Zhao, Li,Pu, Yong,Hao, Xiaoqing,Zhang, Shujin,Pu, Yong.

[17]Iron nutrition affects cadmium accumulation and toxicity in rice plants. Shao, Guosheng,Chen, Mingxue,Wang, Weixia,Mon, Renxiang,Zhang, Guoping.

[18]Amending the seedling bed of eggplant with biochar can further immobilize Cd in contaminated soils. Li, Zhongyang,Qi, Xuebin,Fan, Xiangyang,Du, Zhenjie,Hu, Chao,Zhao, Zhijuan,Liu, Yuan,Li, Zhongyang,Qi, Xuebin,Fan, Xiangyang,Du, Zhenjie,Hu, Chao,Zhao, Zhijuan,Liu, Yuan,Isa, Yunusa. 2016

[19]Comparison of Soybean Cultivars Enriching Cd and the Application Foreground of the Low-Accumulating Cultivar in Production. Wang, Siqi,Wei, Shuhe,Wang, Siqi,Chen, Yanqiu,Ljupco, Mihajlov. 2017

[20]In Situ Field-Scale Remediation of Low Cd-Contaminated Paddy Soil Using Soil Amendments. Ai, Shao-ying,Wang, Yan-hong,Tang, Ming-deng,Li, Yi-Chun,Li, Lin-feng,Ai, Shao-ying,Wang, Yan-hong,Tang, Ming-deng,Li, Yi-Chun,Li, Lin-feng,Ai, Shao-ying,Wang, Yan-hong,Tang, Ming-deng,Li, Yi-Chun.

作者其他论文 更多>>

微信小程序