Comparison of greenhouse gas emissions of chemical fertilizer types in China

文献类型： 外文期刊

第一作者： Zhan-biao Wang;;Jing Chen

作者： Zhan-biao Wang;Jing Chen;Shu-chun Mao;Ying-chun Han;Fu Chen;Li-feng Zhang;Ya-bing Li;Cun-dong Li

作者机构：

关键词： Climate change;Greenhouse gas emissions;Fertilizer product types;Fertilizer scenarios

期刊名称：JOURNAL OF CLEANER PRODUCTION （ 影响因子：9.297； 五年影响因子：9.444 ）

ISSN：

年卷期：

页码：

收录情况： SCI

摘要： Increasing awareness of climate change and food security has spawned an interest in low-carbon agriculture, an important aspect of which is the reduction of greenhouse gas emissions. As the largest source of agricultural emissions is fertilizer application, using a different type of fertilizer may help to mitigate greenhouse gas emissions from agriculture systems. The objectives of this study were to report a basic estimate of agricultural inputs and greenhouse gas emissions of crop production using national statistical data available for the period of 1993-2007, to compare the quantities of greenhouse gas emissions from different fertilizer types (per unit of N, P2O5, and K2O), to identify fertilizer types with the lowest emissions and the lowest costs, and to quantify the emissions gap between the lowest and actual emission scenarios, which will provide critical information for pursuing low-carbon agriculture in the future. According to available data, the use of all agricultural inputs increased during 1993-2012, resulting in an increase in not only yield but also in total greenhouse gas emissions from crop production. Not considering direct N2O emissions from the field, fertilizer-induced emissions accounted for up to 47.71% of the total greenhouse gas emissions from crop production. Therefore, lowering fertilizer induced emissions is a priority measure that will result in low-carbon agriculture. Furthermore, ammonium bicarbonate, calcium superphosphate, and potassium chloride were found to be fertilizers with the lowest greenhouse gas emissions, and adoption of these fertilizers would result in a 49.15% reduction in fertilizer-induced emissions. This finding indicates that the judicious choice of fertilizer type would contribute to reducing greenhouse gas emissions in intensive production systems in China. Accordingly, utilizing ammonium bicarbonate, calcium superphosphate, and potassium chloride would be beneficial for greenhouse gas emission reduction and could be adopted as a good practice of low carbon agriculture in China. This study highlights that changing to an appropriate fertilizer type could be an efficient option for mitigating greenhouse gas emissions in crop production in China. (C) 2016 Published by Elsevier Ltd.

分类号： X5

  • 相关文献

[1]Differences in CH4 and N2O emissions between rice nurseries in Chinese major rice cropping areas. Zhang, Yi,Jiang, Yu,Zhang, Mingqian,Zhang, Weijian,Li, Zhijie,Zhang, Xin,Deng, Aixing,Zhang, Weijian,Feng, Jinfei,Chen, Jin. 2014

[2]Reducing greenhouse gas emissions from a wheat-maize rotation system while still maintaining productivity. Li, Jianzheng,Wang, Yingchun,Wang, Daolong,Wang, Ligang,Gao, Chunyu,Li, Jianzheng,Wang, Enli,Xing, Hongtao.

[3]Greenhouse gas emissions, soil quality, and crop productivity from a mono-rice cultivation system as influenced by fallow season straw management. Liu, Wei,Hussain, Saddam,Wu, Lishu,Qin, Ziguo,Li, Xiaokun,Lu, Jianwei,Khan, Fahad,Geng, Mingjian,Cao, Weidong.

[4]Climate Clever Clovers: New Paradigm to Reduce the Environmental Footprint of Ruminants by Breeding Low Methanogenic Forages Utilizing Haplotype Variation. Kaur, Parwinder,Nichols, Phillip,Revell, Clinton,Erskine, William,Kaur, Parwinder,Vercoe, Philip,Durmic, Zoey,Erskine, William,Kaur, Parwinder,Vercoe, Philip,Stefanova, Katia,Durmic, Zoey,Edwards, David,Erskine, William,Kaur, Parwinder,Appels, Rudi,Keeble-Gagnere, Gabriel,Bayer, Philipp E.,Edwards, David,Wang, Jiankang,Hirakawa, Hideki,Shirasawa, Kenta,Isobe, Sachiko N.,Stefanova, Katia,Nichols, Phillip,Revell, Clinton. 2017

[5]Combination of modified nitrogen fertilizers and water saving irrigation can reduce greenhouse gas emissions and increase rice yield. Li, Jianling,Li, Yu'e,Wan, Yunfan,Wang, Bin,Waqas, Muhammad Ahmed,Qin, Xiaobo,Gao, Qingzhu,Wilkes, Andreas,Cai, Weiwei,Guo, Chen,Zhou, Shouhua,Su, Rongsui. 2018

[6]Biomass and biofuels in China: Toward bioenergy resource potentials and their impacts on the environment. Qin, Zhangcai,Zhuang, Qianlai,Cai, Ximing,He, Yujie,Huang, Yao,He, Yujie,Jiang, Dong,He, Yujie,Jiang, Dong,Lin, Erda,Liu, Yaling,Tang, Ya,Wang, Michael Q.. 2018

[7]Large-scale farming operations are win-win for grain production, soil carbon storage and mitigation of greenhouse gases. Zhu, Yongchang,Waqas, Muhammad Ahmed,Li, Yu'e,Wilkes, Andreas,Qin, Xiaobo,Gao, Qingzhu,Wan, Yunfan,Hasbagan, Ganjurjav,Zou, Xiaoxia,Jiang, Defeng. 2018

[8]Soil CO2 and N2O Emissions in Maize Growing Season Under Different Fertilizer Regimes in an Upland Red Soil Region of South China. Zhang Xu-bo,Sun Nan,Ding Xue-shan,Wang Bo-ren,Li Dong-chu,Wu Lian-hai,Li Jian-wei. 2014

[9]Coupling life-cycle assessment and the RothC model to estimate the carbon footprint of green manure-based wheat production in China. Yao, Zhiyuan,Zhang, Dabin,Yao, Pengwei,Liu, Na,Zhai, Bingnian,Huang, Donglin,Gao, Yajun,Zhao, Na,Zhang, Suiqi,Li, Yangyang,Cao, Weidong,Zhang, Dabin,Zhai, Bingnian,Huang, Donglin,Gao, Yajun.

[10]Carbon flow analysis of China's agro-ecosystem from 1980 to 2013: A perspective from substance flow analysis. Liu, Yu,Wang, Can,Wang, Can,Chen, Minpeng.

[11]Spatio-temporal responses of cropland phenophases to climate change in Northeast China. Li Zhengguo,Tang Huajun,Yang Peng,Wu Wenbin,Chen Zhongxin,Zhou Qingbo,Zhang Li,Zou Jinqiu,Li Zhengguo,Tang Huajun,Yang Peng,Wu Wenbin,Chen Zhongxin,Zhou Qingbo,Zhang Li,Zou Jinqiu. 2012

[12]Agroclimatic conditions in China under climate change scenarios projected from regional climate models. Tian, Zhan,Liang, Zhuoran,Yang, Xuchao,Yang, Xuchao,Sun, Laixiang,Sun, Laixiang,Fischer, Guenther,Sun, Laixiang,Pan, Jie.

[13]Early eclosion of overwintering cotton bollworm moths from warming temperatures accentuates yield loss in wheat. Ouyang, Fang,Zhang, YongSheng,Fan, Lipeng,Ge, Feng,Hui, Cang,Hui, Cang,Men, XinYuan,Zhang, YongSheng,Shi, Peijian,Zhao, Zihua.

[14]Characterization of Grain Quality and Starch Fine Structure of Two Japonica Rice (Oryza Sativa) Cultivars with Good Sensory Properties at Different Temperatures during the Filling Stage. Zhang, Changquan,Zhou, Lihui,Lu, Huwen,Zhou, Xingzhong,Qan, Yiting,Li, Qianfeng,Lu, Yan,Gu, Minghong,Liu, Qiaoquan,Zhou, Lihui,Zhu, Zhengbin.

[15]Crop Wild Relatives-Undervalued, Underutilized and under Threat?. Ford-Lloyd, Brian V.,Armstrong, Susan J.,Kell, Shelagh P.,Maxted, Nigel,Schmidt, Markus,Barazani, Oz,Hadas, Rivka,Engels, Jan,Hammer, Karl,Khoshbakht, Korous,Kang, Dingming,Li, Yinghui,Qiu, Lijuan,Long, Chunlin,Lu, Bao-Rong,Ma, Keping,Ge, Song,Wei, Wei,Viet Tung Nguyen,Zhang, Zongwen.

[16]Climate change and its impacts on vegetation distribution and net primary productivity of the alpine ecosystem in the Qinghai-Tibetan Plateau. Gao, Qingzhu,Ganjurjav, Hasbagen,Li, Yue,Wan, Yunfan,Qin, Xiaobo,Ma, Xin,Liu, Shuo,Gao, Qingzhu,Ganjurjav, Hasbagen,Li, Yue,Wan, Yunfan,Qin, Xiaobo,Ma, Xin,Liu, Shuo,Guo, Yaqi,Guo, Yaqi,Xu, Hongmei.

[17]Adaptation of agriculture to warming in Northeast China. Yang, Xiu,Lin, Erda,Ma, Shiming,Ju, Hui,Guo, Liping,Xiong, Wei,Li, Yue,Xu, Yinlong.

[18]Future climate change, the agricultural water cycle, and. agricultural production in China. Tao, F,Yokozawa, M,Hayashi, Y,Lin, E.

[19]Effects of long-term cropping regimes on soil carbon sequestration and aggregate composition in rainfed farmland of Northeast China. Kou, T. J.,Song, Z. W.,Deng, A. X.,Zhang, W. J.,Kou, T. J.,Zhu, P.,Gao, H. J.,Peng, C.,Huang, S.,Peng, X. X.,Zhang, W. J..

[20]Altitudinal effects on the quality of green tea in east China: a climate change perspective. Han, Wen-Yan,Li, Xin,Li, Zhi-Xin,Ahammed, Golam Jalal,Yan, Peng,Huang, Ji-Gang,Stepp, John Richard.

作者其他论文 更多>>

微信小程序