您好,欢迎访问河南省农业科学院 机构知识库!

Effect of maize-legume intercropping on soil nitrate and ammonium accumulation

文献类型: 外文期刊

作者: Huang, Jian-xiong 1 ; Sui, Peng 1 ; Nie, Sheng-wei 1 ; Wang, Bing-bing 1 ; Nie, Zi-jin 1 ; Gao, Wang-sheng 1 ; Chen, Y 1 ;

作者机构: 1.China Agr Univ, Circular Agr Res Ctr, Beijing 100193, Peoples R China

2.Henan Acad Agr Sci, Inst Plant Nutrient & Environm Resources, Minist Agr, Natl Key Field Sci Observat Stn Zhengzhou Fluvoaq, Zhengzhou 450002, Peoples R China

关键词: Maize;legume;intercropping;soil nitrate;soil ammonium

期刊名称:JOURNAL OF FOOD AGRICULTURE & ENVIRONMENT ( 影响因子:0.435; 五年影响因子:0.484 )

ISSN:

年卷期:

页码:

收录情况: SCI

摘要: Over use of nitrogen (N) fertilizer can lead to environmental problems. In China, maize is one of the dominant crops and consumes a great deal of N fertilizer. A considerable proportion of farmers applied superfluous nitrogen fertilizer on maize production, which certainly causes N loss as nitrate leaching. How to reduce nitrate leaching in-situ is a research hotspot on crop production recently. To observe the effect of nitrate leaching under intercropping systems, an experiment was carried out in field with four treatments which were maize monoculture, maize intercropped with red clover, maize intercropped with sweet clover and maize intercropped with pea. Results showed that the maize intercropped with red clover did not significantly influence soil nitrate content, but implementation of intercropping sweet clover and pea in maize field reduced nitrate accumulation in 0-200 cm soil layer by 25.7% and 34.4%, respectively, because these two intercropping treatments significantly reduced soil nitrate content at 120-200 cm soil depth. However, intercropping had little effect on ammonium accumulation. On the other hand, the grain yield of maize was not significantly influenced by intercropping with legume. The results implied that maize intercroppedwith legume benefited the environment without visible loss of yield in this case.

  • 相关文献

[1]Soil Nitrous Oxide Emissions Under Maize-Legume Intercropping System in the North China Plain. Huang Jian-xiong,Chen Yuan-quan,Sui Peng,Nie Sheng-wei,Gao Wang-sheng,Nie Sheng-wei. 2014

[2]Nitrate Leaching from Maize Intercropping Systems with N Fertilizer Over-Dose. Nie Sheng-wei,Chen Yuan-quan,Sui Peng,Huang Jian-xiong,Nie Sheng-wei,Huang Shao-min,Eneji, A. Egrinya. 2012

[3]基因枪介导法获得转BtCrylAc基因抗虫玉米植株的研究. 铁双贵,柏松,岳润清,齐建双,王延召,孙静,陈小洁,田保明. 2012

[4]Comparative Genomics Suggests That an Ancestral Polyploidy Event Leads to Enhanced Root Nodule Symbiosis in the Papilionoideae. Li, Qi-Gang,Zhang, Li,Li, Chun,Zhang, Yuan-Ming,Li, Qi-Gang,Li, Chun,Dunwell, Jim M..

[5]Effect of maize intercropped with alfalfa and sweet clover on soil carbon dioxide emissions during the growing season in North China Plain. Huang, Jian-xiong,Sui, Peng,Nie, Sheng-wei,Gao, Wang-sheng,Chen, Yuan-quan,Nie, Sheng-wei. 2013

[6]Impacts of maize intercropping with ryegrass and alfalfa on environment in fields with nitrogen fertilizer over-dose. Nie, Sheng-wei,Chen, Yuan-quan,Sui, Peng,Huang, Jian-xiong,Nie, Sheng-wei,Egrinya, Enejin A.. 2012

[7]Genome-wide identification, expression analysis of auxin-responsive GH3 family genes in maize (Zea mays L.) under abiotic stresses. Feng, Shangguo,Yang, Yanjun,Xu, Mingfeng,Wang, Huizhong,Shen, Chenjia,Yue, Runqing,Zhang, Lei. 2015

[8]Predicting the chemical composition of intact kernels in maize hybrids by near infrared reflectance spectroscopy. Wei, LR,Jiang, HY,Li, JH,Yan, YL,Dai, JR. 2005

[9]Identification and expression profiling analysis of calmodulin-binding transcription activator genes in maize (Zea mays L.) under abiotic and biotic stresses. Yue, Runqing,Lu, Caixia,Han, Xiaohua,Qi, Jianshuang,Yan, Shufeng,Tie, Shuanggui,Yue, Runqing,Lu, Caixia,Han, Xiaohua,Qi, Jianshuang,Yan, Shufeng,Tie, Shuanggui,Sun, Tao,Peng, Tingting. 2015

[10]Enhancing phosphorus uptake efficiency through QTL-based selection for root system architecture in maize. Gu, Riliang,Chen, Fanjun,Long, Lizhi,Cai, Hongguang,Liu, Zhigang,Yang, Jiabo,Wang, Lifeng,Mi, Guohua,Zhang, Fusuo,Yuan, Lixing,Gu, Riliang,Li, Huiyong,Li, Junhui,Cai, Hongguang,Wang, Lifeng,Li, Huiyong. 2016

[11]Effects of excess copper on the oxidative stress in roots of maize seedlings. Wang, Yan Zhao,Nie, Li Hong,Tie, Shuanggui,Xie, Deyi,Zhu, Weihong,Qi, Jianshuang,Yue, Runqing. 2011

[12]Transcriptome Analysis of Cadmium-Treated Roots in Maize (Zea mays L.). Yue, Runqing,Lu, Caixia,Qi, Jianshuang,Han, Xiaohua,Yan, Shufeng,Guo, Shulei,Liu, Lu,Fu, Xiaolei,Chen, Nana,Yin, Haiyan,Chi, Haifeng,Tie, Shuanggui,Yue, Runqing,Lu, Caixia,Qi, Jianshuang,Han, Xiaohua,Yan, Shufeng,Guo, Shulei,Liu, Lu,Fu, Xiaolei,Chen, Nana,Yin, Haiyan,Chi, Haifeng,Tie, Shuanggui. 2016

[13]Transcriptomic analysis of maize mature embryos from an elite maize hybrid Zhengdan958 and its parental lines. Li, Huiyong,Cao, Yanyong,Wang, Lifeng,Zhang, Yan,Li, Jingjing,Wang, Hao,Tang, Baojun,Liu, Tingsong.

[14]Dissection of the genetic architecture for grain quality-related traits in three RIL populations of maize (Zea mays L.). Wang, Zhiyong,Liu, Na,Ku, Lixia,Tian, Zhiqiang,Shi, Yong,Guo, Shulei,Su, Huihui,Zhang, Liangkun,Ren, Zhenzhen,Li, Guohui,Wang, Xiaobo,Zhu, Yuguang,Chen, Yanhui,Wang, Zhiyong,Liu, Na,Ku, Lixia,Tian, Zhiqiang,Shi, Yong,Guo, Shulei,Su, Huihui,Zhang, Liangkun,Ren, Zhenzhen,Li, Guohui,Wang, Xiaobo,Zhu, Yuguang,Chen, Yanhui,Liu, Na,Qi, Jianshuang,Zhang, Xin.

[15]Epistatic and QTLxenvironment interaction effects on leaf area-associated traits in maize. Wei, Xiaomin,Wang, Xiaobo,Zhou, Jinlong,Shi, Yong,Wang, Huitao,Dou, Dandan,Song, Xiaoheng,Li, Guohui,Ku, Lixia,Chen, Yanhui,Wei, Xiaomin,Wang, Xiaobo,Zhou, Jinlong,Shi, Yong,Wang, Huitao,Dou, Dandan,Song, Xiaoheng,Li, Guohui,Ku, Lixia,Chen, Yanhui,Wei, Xiaomin,Guo, Shulei.

[16]Modelling and predicting crop yield, soil carbon and nitrogen stocks under climate change scenarios with fertiliser management in the North China Plain. Zhang, Xubo,Xu, Minggang,Sun, Nan,Zhang, Xubo,Wu, Lianhai,Xiong, Wei,Huang, Shaomin.

[17]Small auxin upregulated RNA (SAUR) gene family in maize: Identification, evolution, and its phylogenetic comparison with Arabidopsis, rice, and sorghum. Chen, Yuzhu,Cao, Jun,Hao, Xi. 2014

[18]Isolation and Analysis of Drought-Induced Genes in Maize Roots. Li Hui-yong,Huang Shu-hua,Shi Yun-su,Song Yan-chun,Zhong Zhong-bao,Wang Guo-ying,Wang Tian-yu,Li Yu,Li Hui-yong. 2009

[19]Detection of QTLs controlling fast kernel dehydration in maize (Zea mays L.). Qian, Y. L.,Guo, J.,Wang, J.,Qi, Y. C.,Li, T. C.,Zhang, W.,Ruan, L.,Zuo, X. L.,Zhang, X. Q.,Wang, L. F.,Chen, J.,Chen, B. R.,Lv, G. H.,Wu, Z. C.. 2016

[20]Identification and Fine Mapping of rhm1 Locus for Resistance to Southern Corn Leaf Blight in Maize. Zhao, Yuanzeng,Lu, Xiaomin,Liu, Chaoxian,Guan, Haiying,Zhang, Mei,Li, Zhongfeng,Cai, Hongwei,Lai, Jinsheng,Zhao, Yuanzeng,Lu, Xiaomin,Liu, Chaoxian,Guan, Haiying,Zhang, Mei,Li, Zhongfeng,Cai, Hongwei,Lai, Jinsheng,Zhao, Yuanzeng,Lu, Xiaomin. 2012

作者其他论文 更多>>