A novel soil manganese mechanism drives plant species loss with increased nitrogen deposition in a temperate steppe

文献类型： 外文期刊

第一作者： Tian, Qiuying

作者： Tian, Qiuying;Liu, Nana;Bai, Wenming;Li, Linghao;Lu, Peng;Gao, Yan;Yang, An;Wang, Tianzuo;Li, Xin;Han, Xingguo;Zhang, Wen-Hao;Tian, Qiuying;Zhang, Wen-Hao;Liu, Nana;Chen, Jiquan;Chen, Jiquan;Reich, Peter B.;Reich, Peter B.;Yu, Qiang;Cheng, Weixin;Wang, Zhengwen;Han, Xingguo;Yu, Qiang;Smith, Melinda D.;Knapp, Alan K.;Yu, Qiang;Smith, Melinda D.;Guo, Dali;Cheng, Weixin;Ma, Yibing

作者机构：

关键词： Artemisia frigida;forbs and grasses;Inner Mongolia;China;manganese mobilization and acquisition;nitrogen deposition;photosynthesis;soil acidification;species richness;Stipa krylovii;temperate steppe

期刊名称：ECOLOGY （ 影响因子：5.499； 五年影响因子：6.001 ）

ISSN：

年卷期：

页码：

收录情况： SCI

摘要： Loss of plant diversity with increased anthropogenic nitrogen (N) deposition in grasslands has occurred globally. In most cases, competitive exclusion driven by preemption of light or space is invoked as a key mechanism. Here, we provide evidence from a 9-yr N-addition experiment for an alternative mechanism: differential sensitivity of forbs and grasses to increased soil manganese (Mn) levels. In Inner Mongolia steppes, increasing the N supply shifted plant community composition from grass-forb codominance (primarily Stipa krylovii and Artemisia frigida, respectively) to exclusive dominance by grass, with associated declines in overall species richness. Reduced abundance of forbs was linked to soil acidification that increased mobilization of soil Mn, with a 10-fold greater accumulation of Mn in forbs than in grasses. The enhanced accumulation of Mn in forbs was correlated with reduced photosynthetic rates and growth, and is consistent with the loss of forb species. Differential accumulation of Mn between forbs and grasses can be linked to fundamental differences between dicots and monocots in the biochemical pathways regulating metal transport. These findings provide a mechanistic explanation for N-induced species loss in temperate grasslands by linking metal mobilization in soil to differential metal acquisition and impacts on key functional groups in these ecosystems.

分类号： X17

  • 相关文献

[1]Response of N2O emission to water and nitrogen addition in temperate typical steppe soil in Inner Mongolia, China. Liu, Xinchao,Dong, Yunshe,Qi, Yuchun,Peng, Qin,He, Yating,Sun, Liangjie,Jia, Junqiang,Guo, Shufang,Cao, Congcong,Yan, Zhongqing,Sun, Liangjie,Jia, Junqiang,Guo, Shufang,Cao, Congcong,Yan, Zhongqing,Liu, Xinchao,He, Yating,Liu, Xinchao,Liu, Xinchao,Liu, Xuehua.

[2]Response of bacterial community to simulated nitrogen deposition in soils and a unique relationship between plant species and soil bacteria in the Songnen grassland in Northeastern China. Sun, S.,Xing, F.,Zhao, H.,Gao, Y.,Bai, Z.,Zhao, H.,Dong, Y.. 2014

[3]Chrysotus Meigen (Diptera: Dolichopodidae) from Inner Mongolia with descriptions of two new species. Liu, Ruosi,Wang, Ning,Yang, Ding.

[4]Global-scale modelling of potential changes in terrestrial nitrogen cycle from a growing nitrogen deposition. Li, Z. G.,Yang, P.,Wu, W. B.,Lin, L.,Sagisaka, M.. 2012

[5]Effects of water and nitrogen addition on vegetation carbon pools in a semi-arid temperate steppe. Jia, Junqiang,Dong, Yunshe,Qi, Yuchun,Peng, Qin,Liu, Xinchao,Sun, Liangjie,Guo, Shufang,He, Yunlong,Cao, Congcong,Yan, Zhongqing,Jia, Junqiang,Guo, Shufang,He, Yunlong,Cao, Congcong,Yan, Zhongqing,Liu, Xinchao,Sun, Liangjie. 2016

[6]Modeling the effects of nitrogen deposition on carbon budget in two temperate forests. Tao, Bo,Wang, Qiufeng,Yu, Guirui,Zhang, Leiming,Li, Kerang,Gu, Fengxue,Zhang, Yuandong.

[7]Nitrogen deposition and its effect on carbon storage in Chinese forests during 1981-2010. Gu, Fengxue,Guo, Rui,Li, Jie,Zhang, Yuandong,Huang, Mei,Yan, Huimin,Tao, Bo. 2015

[8]Differential responses of short-term soil respiration dynamics to the experimental addition of nitrogen and water in the temperate semi-arid steppe of Inner Mongolia, China. Qi, Yuchun,Liu, Xinchao,Dong, Yunshe,Peng, Qin,Sun, Liangjie,Jia, Junqiang,Cao, Congcong,Liu, Xinchao,Sun, Liangjie,Jia, Junqiang,Cao, Congcong,He, Yating.

[9]Aboveground net primary productivity of vegetation along a climate-related gradient in a Eurasian temperate grassland: spatiotemporal patterns and their relationships with climate factors. Gao, Tian,Zheng, Xiao,Gao, Tian,Xu, Bin,Yang, Xiuchun,Ma, Hailong,Yu, Haida,Yu, Qiangyi,Gao, Tian,Deng, Songqiu,Liu, Yuechen,Jin, Yunxiang,Li, Jinya. 2017

[10]Study of Allocations of 12 Essential Elements under Simulated Warming and Nitrogen Deposition in a Mongolian Traditional Drug, Agi, Artemisia Frigida Willd. Borjigidai, Almaz,Zhuang Li,Xi Yi,Li Ya-wei,Pang Zong-ran,Cui Jian,Borjigidai, Almaz,Zhuang Li,Xi Yi,Li Ya-wei,Pang Zong-ran,Cui Jian,Borjigidai, Almaz,Zhuang Li,Xi Yi,Li Ya-wei,Pang Zong-ran,Cui Jian,Gao Qing-zhu,Gao Qing-zhu,Huang Yong-mei. 2013

[11]Effects of long-term nitrogen application on soil acidification and solution chemistry of a tea plantation in China. Yang, Xiang-de,Ni, Kang,Shi, Yuan-zhi,Yi, Xiao-yun,Zhang, Qun-feng,Fang, Li,Ma, Li-feng,Ruan, Jianyun,Yang, Xiang-de. 2018

[12]Aluminium in tea plantations: mobility in soils and plants, and the influence of nitrogen fertilization. Ruan, Jianyun,Ma, Lifeng,Shi, Yuanzhi.

[13]Tea planting affects soil acidification and nitrogen and phosphorus distribution in soil. Yan, Peng,Shen, Chen,Fan, Lichao,Li, Xin,Zhang, Liping,Zhang, Lan,Han, Wenyan. 2018

[14]Nitrification and acidification from urea application in red soil (Ferralic Cambisol) after different long-term fertilization treatments. Cai, Zejiang,Wang, Boren,Xu, Minggang,Zhang, Huimin,Zhang, Lu,Cai, Zejiang,Wang, Boren,Xu, Minggang,Zhang, Huimin,Zhang, Lu,Gao, Suduan. 2014

[15]Long-Term Fertilizer Experiment Network in China: Crop Yields and Soil Nutrient Trends. Poulton, Paul,Powlson, David,Todd, Alan,Payne, Roger,Zhao, Bing-qiang,Li, Xiu-ying,Li, Xiao-ping,Shi, Xiao-jun,Huang, Shao-min,Wang, Bo-ren,Zhu, Ping,Yang, Xue-yun,Liu, Hua,Chen, Yi.

[16]Chemical degradation of a Ferralsol (Oxisol) under intensive rubber (Hevea brasiliensis) farming in tropical China. Zhang, Hua,Zhang, Gan-Lin,Zhao, Yu-Guo,Zhao, Wen-Jun,Qi, Zhi-Ping. 2007

[17]Impacts of fertilization practices on pH and the pH buffering capacity of calcareous soil. Zhang, Yongyong,Wang, Ruzhen,Cai, Jiangping,Li, Hui,Jiang, Yong,Zhang, Yongyong,Cai, Jiangping,Zhang, Shuiqing,Huang, Shaomin,Zhang, Yuge.

[18]Responses of ground-dwelling spiders to four hedgerow species on sloped agricultural fields in Southwest China. Cheng, Xu,Wu, Yuhong,Lin, Chaowen,Chen, Yibing,Li, Yuying. 2009

[19]Species diversity defends against the invasion of Nile tilapia (Oreochromis niloticus). Gu, Dang E.,Luo, Du,Xu, Meng,Ma, Guang M.,Mu, Xi D.,Luo, Jian R.,Hu, Yin C.,Ma, Guang M.. 2014

[20]Responses of Soil Seed Bank and Vegetation to the Increasing Intensity of Human Disturbance in a Semi-Arid Region of Northern China. Li, Cui,Wang, Qinghai,Zheng, Ruilun,Wu, Juying,Xiao, Bo. 2017

作者其他论文 更多>>

微信小程序