数字农科院2.0

Mitigation Of Soil Acidification Through C.hanges In Soil Mineralogy D ue To Long-Term Fertilization In Southern China

文献类型： 外文期刊

作者： Tao, L; Li, FB; Liu, CS; Feng, XH; Gu, LL; Wang, BR; Wen, SL; Xu, MG

作者机构：

关键词： Soil acidification; Potential acid Al3+; Al substituted iron oxides; Differential X-ray diffraction spectra

期刊名称： CATENA

ISSN： 0341-8162

年卷期： 2019 年 174 卷

页码：

收录情况： JCR（2021版）

摘要： Soil acidification is a natural process, and it is well known that soil acidification can be accelerated by long-term fertilization (LTF). Nevertheless, how this acidification occurs and how the mineralogies of iron oxides as the important active clay components in red soil respond to the acidification is still less understood. In this study, soil samples from 23 years (1990-2013) of long-term fertilization experiments were collected from the Qiyang Red Soil Experimental Station in southern China. The physicochemical properties of the soil samples were analyzed. A significant negative linear correlation between soil pH and log(Al-py) (complex-state aluminum) as well as log(Al-exch) (exchangeable Al3+) illustrate that Al-py and Al-exch are the most sensitive species to soil acidification compared with the other factors. In addition, the mineralogical characteristics of the iron oxides in five typical LTF treatments, including the control, chemical fertilizer N, NPK, NPK plus manure and manure were analyzed using the synchrotron differential XRD patterns (DXRD). The results obtained revealed that the LTF treatment with chemical N reduced the total content of iron oxides and the ratio of goethite to hematite (G/H value), and the transformation of iron oxides and accumulation of hematite in the soil would reduce the soil's buffering capacities to acidification. In contrast, the LTF treatments with manure (NPKM and M) presented the opposite trends. In addition, a positive relationship between soil pH and the IOsAlmol% (isomorphous substitution ratio of Al for Fe in iron oxides) was also found. Therefore, the potential acid Al3+ ions in soil are reduced through the ionic substitution of Al for Fe in the structure, which may further mitigate the process of soil acidification. These results provide new insights for further understanding the soil acidification processes induced by LTF and how those iron oxides respond to soil pH during soil acidification.

分类号：

  • 相关文献

[1]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

[2]Quantification Of The Contribution Of N.itrogen Fertilization And Crop H arvesting To Soil Acidification In A Wheat-Maize Double Cropping System. Shi, Xiaojun,Zhu, Qichao,Zeng, Mufan,de Vries, Wim,de Vries, Wim,Liu, Xuejun,Shen, Jianbo,Shi, Xiaojun,Zhang, Fusuo,Hao, Tianxiang. 2019

[3]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.

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

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

[6]Effects Of Long-Term Nitrogen Application O.n Soil Acidification And S olution Chemistry Of A Tea Plantation In China. Yang, XD, Ni, K, Shi, YZ, Yi, XY, Zhang, QF, Fang, L, Ma, LF, Ruan, JY. 2018

[7]Effect of Quicklime on Microbial Community in Strong Acidic Soil. Junwei Liang,Xiangquan Yu,Yafan Cao,Jiguang Zhang,Ning Yan,Lin Xue,Xianjie Cai,Guoming Shen. 2021

[8]Identifying agronomic practices with higher yield and lower global warming potential in rice paddies: a global meta-analysis. Ping Liao,Yanni Sun,Xiangcheng Zhu,Haiyuan Wang,Yong Wang,Jin Chen,Jun Zhang,Yanhua Zeng,Yongjun Zeng,Shan Huang. 2021

[9]Significant loss of soil inorganic carbon at the continental scale. Song, Xiao-Dong,Yang, Fei,Wu, Hua-Yong,Zhang, Jing,Li, De-Cheng,Liu, Feng,Zhao, Yu-Guo,Yang, Jin-Ling,Ju, Bing,Cai, Chong-Fa,Huang, Biao,Long, Huai-Yu,Lu, Ying,Sui, Yue-Yu,Wang, Qiu-Bing,Wu, Ke-Ning,Zhang, Feng-Rong,Zhang, Ming-Kui,Shi, Zhou,Ma, Wan-Zhu,Xin, Gang,Qi, Zhi-Ping,Chang, Qing-Rui,Ci, En,Yuan, Da-Gang,Zhang, Yang-Zhu,Bai, Jun-Ping,Chen, Jia-Ying,Chen, Jie,Chen, Yin-Jun,Dong, Yun-Zhong,Han, Chun-Lan,Li, Ling,Liu, Li-Ming,Pan, Jian-Jun,Song, Fu-Peng,Sun, Fu-Jun,Wang, Deng-Feng,Wang, Tian-Wei,Wei, Xiang-Hua,Wu, Hong-Qi,Zhao, Xia,Zhou, Qing,Zhang, Gan-Lin. 2022

[10]Alleviating soil acidification and increasing the organic carbon pool by long‐term organic fertilizer on tobacco planting soil. Peigang Dai,Ping Cong,Peng Wang,Jianxin Dong,Zhaorong Dong,Wenjing Song. 2021

[11]Model-based optimal management strategies to mitigate soil acidification and minimize nutrient losses for croplands. Xu D.,Zhu Q.,Ros G.H.,Xu M.,Wen S.,Zhang F.,de Vries W.. 2023

[12]Global patterns and drivers of soil nematodes in response to nitrogen enrichment. Wen Xing,Xiaoming Lu,Shuli Niu,Dima Chen,Jinsong Wang,Ya Liu,Bingxue Wang,Shuang Zhang,Zhaolei Li,Xijun Yao,Qiang Yu,Dashuan Tian. 2022

[13]Liming increases yield and reduces grain cadmium concentration in rice paddies: a meta-analysis. Ping Liao,Shan Huang,Yongjun Zeng,Hua Shao,Jun Zhang,Kees Jan van Groenigen. 2021

[14]Effect of biochar and hydrochar from cow manure and reed straw on lettuce growth in an acidified soil. Shaojing Yin,Xin Zhang,Fengyue Suo,Xiangwei You,Yuan Yuan,Yadong Cheng,Chengsheng Zhang,Yiqiang Li. 2022

[15]Root-Associated Microbiota Response to Ecological Factors: Role of Soil Acidity in Enhancing Citrus Tolerance to Huanglongbing. Bo Li,Yanan Wang,Tongle Hu,Dewen Qiu,Frédéric Francis,Shuangchao Wang,Shutong Wang. 2022

[16]Calculation of spatially explicit amounts and intervals of agricultural lime applications at county-level in China. Donghao Xu,Qichao Zhu,Gerard Ros,Zejiang Cai,Shilin Wen,Minggang Xu,Fusuo Zhang,Wim de Vries. 2022

[17]Soil Acidification In Chinese Tea Plantations. Yan, P, Wu, LQ, Wang, DH, Fu, JY, Shen, C, Li, X, Zhang, LP, Zhang, L, Fan, LC, Han, WY. 2020

[18]Aluminum mobilization characteristics in four typical soils from different climate zones during their acidification. Li, Ke-wei,Xu, Ren-kou,Cai, Zejiang. 2024

[19]Cellular Cd2+ fluxes in roots confirm increased Cd availability to rice (Oryza sativa L.) induced by soil acidifications. Sun X.,Wang M.,Qin L.,Yu L.,Wang J.,Zheng H.,Zhou W.,Chen S.. 2024

[20]Integrating Soil pH, Clay, and Neutralizing Value of Lime into a New Lime Requirement Model for Acidic Soils in China. Han, Dandan,Zeng, Saiqi,Zhang, Xi,Li, Jumei,Ma, Yibing. 2023

作者其他论文 更多>>