Estimating nutrient uptake requirements for wheat in China

文献类型： 外文期刊

第一作者： Chuan, Limin

作者： Chuan, Limin;He, Ping;Jin, Jiyun;Li, Shutian;Xu, Xinpeng;Qiu, Shaojun;Zhao, Shicheng;Zhou, Wei;He, Ping;Jin, Jiyun;Li, Shutian;Grant, Cynthia

作者机构：

关键词： QUEFTS model;Wheat;Internal efficiency;Balanced nutrient requirement

期刊名称：FIELD CROPS RESEARCH （ 影响因子：5.224； 五年影响因子：6.19 ）

ISSN： 0378-4290

年卷期： 2013 年 146 卷

页码：

收录情况： SCI

摘要： Estimating balanced nutrient requirement for wheat (Triticum aestivum L.) in China is essential to manage nutrient application more effectively for increasing crop yields and reducing risk of negative environmental impact. Datasets from 2000 to 2011 dealing with nitrogen (N), phosphoruS (P) and potassium (K) treatments across the winter and spring wheat growing regions in China were collected to assess the relationship between grain yield and nutrient uptake, and to estimate N, P and K optimal nutrient requirements for a target yield using the QUEFTS (Quantitative Evaluation of the Fertility of Tropical Soils) model. In the QUEFTS model, two boundary lines described the minimum and maximum internal efficiencies (IEs, kg grain per kg nutrient in above-ground plant dry matter) of N, P and K. The minimum and maximum IEs for wheat were 28.8 and 62.6 kg grain per kg N, 98.9 and 487.4 kg grain per kg P, and 23.0 and 112.9 kg grain per kg K. The QUEFTS model predicted a linear-parabolic-plateau curve for balanced nutrient uptake with target yield increasing. The linear part continued until the yield was approximately at 60-70% of the potential yield, and 22.8 kg N, 4.4 kg P and 19.0 kg K were required to produce 1000 kg grain. The corresponding N:P:K ratio was 5.18:1:4.32, and the corresponding IEs were 43.9, 227.0 and 52.7 kg grain per kg N, P and K, respectively. The QUEFTS model simulated balanced N, P and K removal by 1000 kg grain were 18.3, 3.6 and 3.5 kg, respectively, with a N:P:K ratio of 5.08:1:0.97. Approximately 80%, 82% and 18% of N, P and K in total above-ground plant material were presented in the grain and removed from the field. The relationship between grain yield and nutrient uptake was also estimated to suggest fertilizer application avoiding excess or deficient nutrient supply. Field experiment validation confirmed that the QUEFTS model could be used as a practical tool for the Nutrient Expert decision support system to make fertilizer recommendation. (C) 2013 Elsevier B.V. All rights reserved.

分类号：

  • 相关文献

[1]Estimating nutrient uptake requirements for rice in China. Xu, Xinpeng,He, Ping,Zhao, Shicheng,Qiu, Shaojun,Zhou, Wei,Xie, Jiagui,Hou, Yunpeng,He, Ping,Pampolino, Mirasol F.,Johnston, Adrian M..

[2]Phosphorus efficiency in a long-term wheat-rice cropping system in China. Tang, X.,Tang, X.,Ma, Y.,Shi, X.,Hao, X..

[3]Nutrient requirements for maize in China based on QUEFTS analysis. Xu, Xinpeng,He, Ping,Chuan, Limin,Qiu, Shaojun,Zhao, Shicheng,Zhou, Wei,He, Ping,Pampolino, Mirasol F.,Johnston, Adrian M..

[4]Heat Priming Induces Trans-generational Tolerance to High Temperature Stress in Wheat. Wang, Xiao,Xin, Caiyun,Cai, Jian,Zhou, Qin,Dai, Tingbo,Cao, Weixing,Jiang, Dong,Xin, Caiyun. 2016

[5]Distribution Characteristics of Soil Cadmium in Different Textured Paddy Soil Profiles and Its Relevance with Cadmium Uptake by Crops. Wang Zheng-yin,Qin Yu-sheng,Zhan Shao-jun,Yu Hua,Tu Shi-hua. 2013

[6]Molecular cloning, functional verification, and evolution of TmPm3, the powdery mildew resistance gene of Triticum monococcum L.. Zhao, C. Z.,Li, Y. H.,Dong, H. T.,Geng, M. M.,Liu, W. H.,Li, F.,Ni, Z. F.,Xie, C. J.,Sun, Q. X.,Zhao, C. Z.,Dong, H. T.,Geng, M. M.,Liu, W. H.,Li, F.,Ni, Z. F.,Xie, C. J.,Sun, Q. X.,Zhao, C. Z.,Wang, X. J.. 2016

[7]Wheat Optimized Fertilization of High Yield Field with Returning Whole Stalks into the Soil in Huang-huai-hai Plain. Sui, Xue-Yan,Wang, Meng,Wang, Yong,Guo, Hong-Hai,Li, Zhan,Zhang, Xiao-Dong. 2016

[8]Effects of Cadmium Stress on Alternative Oxidase and Photosystem II in Three Wheat Cultivars. Xu, Fei,Zhang, Zhong-Wei,Chen, Yang-Er,Wang, Xiao,Shang, Jing,Lin, Hong-Hui,Duan, Yong-Ping,Tu, Shi-Hua,Feng, Wen-Qiang. 2010

[9]Haynaldia villosa NAM-V1 is linked with the powdery mildew resistance gene Pm21 and contributes to increasing grain protein content in wheat. Zhao, Chuanzhi,Lv, Xindi,Li, Yinghui,Li, Feng,Geng, Miaomiao,Mi, Yangyang,Ni, Zhongfu,Xie, Chaojie,Sun, Qixin,Zhao, Chuanzhi,Lv, Xindi,Li, Yinghui,Li, Feng,Geng, Miaomiao,Mi, Yangyang,Ni, Zhongfu,Xie, Chaojie,Sun, Qixin,Zhao, Chuanzhi. 2016

[10]Assessment of Land Suitability Potentials for Selecting Winter Wheat Cultivation Areas in Beijing, China, Using RS and GIS. Wang Da-cheng,Wang Ji-hua,Wang Da-cheng,Li Cun-jun,Song Xiao-yu,Wang Ji-hua,Yang Xiao-dong,Huang Wen-jiang,Wang Jun-ying,Zhou Ji-hong. 2011

[11]Dissipation and Residues of Dichlorprop-P and Bentazone in Wheat-Field Ecosystem. Feng, Xiaoxiao,Pan, Lixiang,Zhang, Hongyan,Yu, Jianlei,Song, Guochun. 2016

[12]Competitive interaction in a jujube tree/wheat agroforestry system in northwest China's Xinjiang Province. Zhang, W.,Wang, B. J.,Gan, Y. W.,Duan, Z. P.,Hao, X. D.,Lv, X.,Li, L. H.,Xu, W. L.. 2017

[13]Cuticular Wax Accumulation Is Associated with Drought Tolerance in Wheat Near-Isogenic Lines. Guo, Jun,Yu, Xiaocong,Li, Haosheng,Cheng, Dungong,Liu, Aifeng,Liu, Jianjun,Liu, Cheng,Song, Jianmin,Guo, Jun,Yu, Xiaocong,Li, Haosheng,Cheng, Dungong,Liu, Aifeng,Liu, Jianjun,Liu, Cheng,Song, Jianmin,Xu, Wen,Shen, Hao,Zhao, Shijie. 2016

[14]Preliminary Study on the Physiological Characteristics of Transgenic Wheat with Maize C-4-pepc Gene in Field Conditions. Han, L. L.,Han, L. L.,Xu, W. G.,Hu, L.,Li, Y.,Qi, X. L.,Zhang, J. H.,Zhang, H. F.,Wang, Y. X.. 2014

[15]Effect of Biochars from Rice Husk, Bran, and Straw on Heavy Metal Uptake by Pot-Grown Wheat Seedling in a Historically Contaminated Soil. Zheng, Ruilun,Xiao, Bo,Chen, Zheng,Wang, Xiaohui,Huang, Yizong,Sun, Guoxin,Cai, Chao. 2013

[16]Detection of Fusarium head blight resistance QTL in a wheat population using bulked segregant analysis. Shen, X,Zhou, M,Lu, W,Ohm, H. 2003

[17]NOVEL FLUORESCENT SEQUENCE-RELATED AMPLIFIED POLYMORPHISM (FSRAP) MARKERS FOR THE CONSTRUCTION OF A GENETIC LINKAGE MAP OF WHEAT (Triticum aestivum L.). Zhang, Li,Yu, Yan,Wei, Shuhong,Yang, Jun,Yang, Zaijun,Qu, Jipeng,Peng, Zhengsong,Lu, Lu,Yang, Wuyun. 2017

[18]Different Tolerance in Bread Wheat, Durum Wheat and Barley to Fusarium Crown Rot Disease Caused by Fusarium pseudograminearum. Liu, Yaxi,Wei, Yuming,Zheng, Youliang,Liu, Yaxi,Ma, Jun,Yan, Wei,Liu, Chunji,Ma, Jun,Yan, Guijun,Yan, Wei,Zhou, Meixue,Zhou, Meixue. 2012

[19]Research on Rapid and Non-Destructive Identification of Aging Wheat Based on ATR-Terahertz Spectroscopy Combined with PLS-DA. Wang Dong,Pan Li-gang,Li An,Jin Xin-xin,Ma Zhi-hong,Wang Ji-hua,Wang Dong,Pan Li-gang,Li An,Jin Xin-xin,Ma Zhi-hong,Wang Ji-hua,Liu Long-hai,Jiang, Justin. 2016

[20]ASSIMILA TION OF REMOTELY SENSED CANOPY VARIABLES INTO CROP MODELS FOR AN ASSESSMENT OF DROUGHT-RELATED YIELD LOSSESS: A COMPARSION OF MODELS OF DIFFERENT COMPLEXITY. Casa, R.,Silvestro, P. C.,Yang, H.,Yang, G.,Pignatti, S.,Pascucci, S.,Yang, H.,Yang, G.. 2016

作者其他论文 更多>>

微信小程序