Impact of imazethapyr on the microbial community structure in agricultural soils

文献类型: 外文期刊

第一作者: Zhang, Changpeng

作者: Zhang, Changpeng;Xu, Jun;Liu, Xingang;Dong, Fengshou;Kong, Zhiqiang;Sheng, Yu;Zheng, Yongquan;Zhang, Changpeng

作者机构:

关键词: microbial community structure;PLFA;herbicide;imazethapyr

期刊名称:CHEMOSPHERE ( 影响因子:7.086; 五年影响因子:6.956 )

ISSN:

年卷期:

页码:

收录情况: SCI

摘要: Large amounts of imazethapyr were applied for weed control in cultivation fields in China, but their effects on the soil microbial community remains unclear. In this study, two agricultural soils, a silty loam (HS)and a loamy soil (QL), were spiked with imazethapyr (CK, 0.1,1 and 10 mg kg~(-1)) and incubated for 1, 15, 30, 60, 90 and 120 d. In addition, untreated controls received only water. The soil microbial community structures were characterized by investigating the phospholipid fatty acids (PLFA) and microbial bio-mass C. Soil microbial biomass C and total concentration of PLFA were variable with incubation time, which were also reduced by the addition of imazethapyr. Imazethapyr addition also decreased the ratios of GN/GP and fungi/bacteria. A larger stress level, measured as the ratio of PLFA (cycl7:0 + cycl9:0)/ (16:1ω7c+18:lω7c), was found in the high concentration (1 and 10 mg kg~(-1)) herbicide treatment groups. The effects of imazethapyr at the field application on soil microbial biomass and microbial community were minor. Principal component analysis (PCA) of the PLFA clearly separated the treatments and incubation times. Both soils showed different total PLFA concentrations and ratios of GN/GP and fungi/ bacteria, but similar changes in the PLFA pattern upon soil treatment. The soil microbial community structure was shifted by the addition of imazethapyr, which recovered after 60 d. In addition, the dissipation of imazethapyr was slow in both soils. Our results demonstrated that the addition of imazethapyr shifted the microbial community structure, but that it recovered after a period of incubation.

分类号: X5

  • 相关文献

[1]Response of the soil microbial community to imazethapyr application in a soybean field. Guo, Liqun,Dong, Fengshou,Liu, Xingang,Wu, Xiaohu,Sheng, Yu,Zhang, Ying,Zheng, Yongquan. 2013

[2]The effect of imazethapyr on soil microbes in soybean fields in northeast China. Zhang, Changpeng,Liu, Xingang,Dong, Fengshou,Xu, Jun,Zheng, Yongquan.

[3]Fungal phytotoxins for weed management. Zhang, J. P.,Duan, G. F.,Zhou, Y. J.,Yu, L. Q..

[4]Molecular basis of resistance to imazethapyr in redroot pigweed (Amaranthus retroflexus L.) populations from China. Chen, Jinyi,Huang, Zhaofeng,Zhang, Chaoxian,Huang, Hongjuan,Wei, Shouhui,Chen, Jingchao,Wang, Xu.

[5]Target-site basis for resistance to imazethapyr in redroot amaranth (Amaranthus retroflexus L.). Huang, Zhaofeng,Chen, Jinyi,Zhang, Chaoxian,Huang, Hongjuan,Wei, Shouhui,Chen, Jingchao,Wang, Xu,Zhou, Xinxin.

[6]Distribution of soil nutrients, extracellular enzyme activities and microbial communities across particle-size fractions in a long-term fertilizer experiment. Zhang, Qian,Zhou, Wei,Liang, Guoqing,Sun, Jingwen,Wang, Xiubin,He, Ping.

[7]Elevated ozone effects on soil nitrogen cycling differ among wheat cultivars. Wu, Honghui,Li, Qi,Lu, Caiyan,Zhang, Lili,Yu, Qiang,Wu, Honghui,Yu, Qiang,Zhu, Jianguo,Dijkstra, Feike A..

[8]The impacts of cypermethrin pesticide application on the non-target microbial community of the pepper plant phyllosphere. Zhang, Baoguo,Bai, Zhihui,Tang, Ling,Zhuang, Guoqiang,Hoefel, Daniel,Wang, Xiaoyi,Li, Baoju,Li, Zuming.

[9]Soil quality assessment of yellow clayey paddy soils with different productivity. Liu, Zhanjun,Zhou, Wei,Li, Shutian,Ai, Chao,Liu, Zhanjun,Shen, Jianbo. 2014

[10]Effect of tetraconazole application on the soil microbial community. Zhang, Wenwen,Xu, Jun,Dong, Fengshou,Liu, Xingang,Zhang, Ying,Wu, Xiaohu,Zheng, Yongquan,Zhang, Wenwen.

[11]Response of microbial community to a new fungicide fluopyram in the silty-loam agricultural soil. Xu, Jun,Dong, Fengshou,Liu, Xingang,Wu, Xiaohu,Zheng, Yongquan,Zhang, Ying.

[12]Assessing soil quality of gleyed paddy soils with different productivities in subtropical China. Liu, Zhanjun,Lv, Jialong,Liu, Zhanjun,Zhou, Wei,Li, Shutian,He, Ping,Liang, Guoqing,Jin, Hui.

[13]The influence of soil properties on the size and structure of bacterial and fungal communities along a paddy soil chronosequence. Liu, Chen,Brookes, Philip C.,Xu, Jianming,Liu, Chen,Ding, Nengfei,Fu, Qinglin,Guo, Bin,Lin, Yichen,Li, Hua,Li, Ningyu.

[14]Effects of residue incorporation and plant growth on soil labile organic carbon and microbial function and community composition under two soil moisture levels. Li, Zengqiang,Zhao, Bingzi,Zhang, Jiabao,Li, Zengqiang,Hao, Xiying.

[15]Response of soil microorganisms after converting a saline desert to arable land in central Asia. Liu, Shenglin,Feng, Gu,Maimaitiaili, Baidengsha,Joergensen, Rainer Georg.

[16]Responses of periphyton morphology, structure, and function to extreme nutrient loading. Lu, Haiying,Feng, Yanfang,Yang, Linzhang,Lu, Haiying,Feng, Yanfang,Wu, Yonghong,Yang, Linzhang,Lu, Haiying,Shao, Hongbo,Wang, Jinhua.

[17]Phyllosphere bacterial communities associated with the degradation of acetamiprid in Phaseolus vulgaris. Zhou, Yu,Xu, Junfeng,Wang, Wei,Chen, Xiaoyun,Qiao, Xiongwu,Zhou, Yu,Li, Wenjun,Zhou, Yu,Li, Wenjun. 2011

[18]The host species affects the microbial community in the goat rumen. Shi, P. J.,Meng, K.,Zhou, Z. G.,Wang, Y. R.,Diao, Q. Y.,Yao, B.. 2008

[19]Soil microbial communities and enzyme activities in a reclaimed coastal soil chronosequence under rice-barley cropping. Fu, Qinglin,Liu, Chen,Ding, Nengfei,Lin, Yicheng,Guo, Bin,Luo, Jiafa,Wang, Hailong. 2012

[20]2,4-Dihydroxy-7-methoxy-1,4-benzoxazin-3-one (DIMBOA) and 6-Methoxy-benzoxazolin-2-one (MBOA) Levels in the Wheat Rhizosphere and Their Effect on the Soil Microbial Community Structure. Kong, Chui-Hua,Zhang, Song-Zhu,Zheng, Yong-Quan,Li, Jing,Liu, Xing-Gang.

作者其他论文 更多>>