The effect of grain size of rock phosphate amendment on metal immobilization in contaminated soils

文献类型: 外文期刊

第一作者: Chen, SB

作者: Chen, SB;Zhu, YG;Ma, YB

作者机构:

关键词: heavy metals;immobilization;rock phosphate;grain size

期刊名称:JOURNAL OF HAZARDOUS MATERIALS ( 影响因子:10.588; 五年影响因子:10.129 )

ISSN:

年卷期:

页码:

收录情况: SCI

摘要: When rock phosphates (RP) are used to remediate Pb-contaminated soils, their effectiveness is likely affected by their grain size. In this study, the effect of grain size of rock phosphate on the effectiveness of heavy metal immobilization in two contaminated soils was measured in pot experiment. Rock phosphate was used with four different grain sizes: < 35, 35-72, 72-133 and 133-266 μm. The application rate of rock phosphate in two soils was determined based on P/metals (Pb, Zn, Cu and Cd) molar ratio of 5.0 in the soils. The results showed that rock phosphate of the smallest grain size ( < 35 μm) was superior to all of other grain sizes more than 35 μm for reducing uptake in plant (Brassica oleracea L.) shoots for Cd (19.6-50.0%), Pb (21.9-51.4%) and Zn (22.4-34.6%), respectively, as compared with the soil without application of rock phosphate. Sequential extraction analysis indicated that rock phosphate was most effective for soil Pb to induced transformation from non-residual fractions to a residual fraction than that for Zn and Cd. Such transformation was probably through dissolution of Pb associated with exchangeable (EX), organic fraction (OC), acidic fraction (AC) and amorphous Fe and Al oxides-bound (OX) fraction and precipitation of pyromorphite-like minerals. Results suggested that the rock phosphate with small grain size was superior to that with large grain size for in situ remediation technology.

分类号: TB1

  • 相关文献

[1]Comparative Effects of Biochar, Slag and Ferrous-Mn Ore on Lead and Cadmium Immobilization in Soil. Mehmood, Sajid,Rizwan, Muhammad,Bashir, Saqib,Aziz, Omar,Yong, Li Zhe,Dai, Zhihua,Tu, Shuxin,Ditta, Allah,Akmal, Muhammad,Ahmed, Waqas,Adeel, Muhammad,Imtiaz, Muhammad. 2018

[2]Effect of nitrogen form and phosphorus source on the growth, nutrient uptake and rhizosphere soil property of Camellia sinensis L.. Ruan, JY,Zhang, FS,Wong, MH. 2000

[3]Immobilization and Characterization of Tannase from a Metagenomic Library and Its Use for Removal of Tannins from Green Tea Infusion. Yao, Jian,Chen, Qinglong,Zhong, Guoxiang,Cao, Wen,Yu, An,Yao, Jian,Liu, Yuhuan.

[4]Effect of bone char application on Pb bioavailability in a Pb-contaminated soil. Chen, SB,Zhu, YG,Ma, YB,McKay, G.

[5]Biodegradation of TNT using Bacillus mycoides immobilized in PVA-sodium alginate-kaolin. Lin, Hongyan,Chen, Zuliang,Lin, Hongyan,Chen, Zuliang,Megharaj, Mallavarapu,Naidu, Ravendra,Chen, Zuliang,Megharaj, Mallavarapu,Naidu, Ravendra.

[6]Immobilization and ammonia removal of photosynthetic bacteria. Zhan Peirong,Liu Wei. 2013

[7]Synthesis of hydrophilic epoxy-functionalized films by UV-initiated copolymerization. Li, Li,Feng, Min,Zhu, Jiating. 2013

[8]The Fabrication of Bio-ceramsite for the Removal of Heavy Metals and Its Toxicity to Bacteria. Shi Yan,Qi Xuebin,Gao Qing,Shi Yan,Sun Ken,Sun Ken. 2015

[9]Degradation of nonylphenol polyethoxylates by functionalized Fe3O4 nanoparticle-immobilized Sphingomonas sp Y2. Bai, Naling,Wang, Sheng,Abuduaini, Rexiding,Zhao, Yuhua,Bai, Naling,Sun, Pengfei,Zhu, Xufen. 2018

[10]Effects of bamboo biochar on soybean root nodulation in multi-elements contaminated soils. Wang, Chunyan,Alidoust, Darioush,Yang, Xueling,Alidoust, Darioush,Isoda, Akihiro. 2018

[11]Effects of rape straw and red mud on extractability and bioavailability of cadmium in a calcareous soil. Yang, Junxing,Guo, Qingjun,Yang, Junxing,Wang, Liqun,Li, Jumei,Wei, Dongpu,Chen, Shibao,Ma, Yibing,Wang, Liqun. 2015

[12]Production of xylobiose from the autohydrolysis explosion liquor of corncob using Thermotoga maritima xylanase B (XynB) immobilized on nickel-chelated Eupergit C. Tan, S. S.,Li, D. Y.,Jiang, Z. Q.,Zhu, Y. P.,Shi, B.,Li, L. T..

[13]Detoxification and immobilization of chromite ore processing residue in spinel-based glass-ceramic. Liao, Chang-Zhong,Liu, Chengshuai,Li, Fangbai,Liao, Chang-Zhong,Shih, Kaimin,Tang, Yuanyuan,Liu, Chengshuai,Lee, Po-Heng.

[14]Enhanced production of a thermostable mannanase by immobilized cells of Bacillus subtilis on various membranes. Wu, Aimin,Jiang, Zhengqiang,Tang, Luo,Yan, Qiaojuan,Bo, Shi.

[15]Effective synthesis of theaflavin-3,3 '-digallate with epigallocatechin-3-O-gallate and epicatechin gallate as substrates by using immobilized pear polyphenol oxidase. Lei, Shicheng,Xie, Minhao,Hu, Bing,Zhou, Li,Sun, Yi,Saeeduddin, Muhammad,Zeng, Xiaoxiong,Lei, Shicheng,Zhang, Hongcheng.

[16]Suppressive effects of thermal-treated oyster shells on cadmium and copper translocation in maize plants. Wang, Chunyan,Alidoust, Darioush,Li, Maosong,Alidoust, Darioush,Isoda, Akihiro.

[17]A novel detoxifying agent: Using rice husk carriers to immobilize zearalenone-degrading enzyme from Aspergillus niger FS10. He, Mengling,Li, Yun,Pi, Fuwei,Ji, Jian,He, Xingxing,Zhang, Yinzhi,Sun, Xiulan,Li, Yun.

[18]OsAGSW1, an ABC1-like kinase gene, is involved in the regulation of grain size and weight in rice. Li, Tao,Jiang, Jieming,Zhang, Shengchun,Shu, Haoran,Wang, Yaqin,Lai, Jianbin,Du, Jinju,Yang, Chengwei,Li, Tao.

[19]Fine mapping of LOW TILLER 1, a gene controlling tillering and panicle branching in rice. Yu, Haiping,Qiu, Zhennan,Xu, Qiankun,Wang, Zhongwei,Zeng, Dali,Hu, Jiang,Zhang, Guangheng,Zhu, Li,Gao, Zhenyu,Chen, Guang,Guo, Longbiao,Qian, Qian,Ren, Deyong,Yu, Haiping.

[20]SLG controls grain size and leaf angle by modulating brassinosteroid homeostasis in rice. Feng, Zhiming,Wang, Chunming,Zhang, Long,Zhang, Shengzhong,Zhang, Huan,Yang, Chunyan,Hu, Jinlong,You, Xiaoman,Liu, Xi,Yang, Xiaoming,Jiang, Ling,Wan, Jianmin,Wu, Chuanyin,Chen, Jun,Guo, Xiuping,Zhang, Xin,Wu, Fuqing,Wan, Jianmin,Roh, Jeehee,Kim, Seong-Ki,Terzaghi, William.

作者其他论文 更多>>