数字农科院2.0

Nitrous oxide emissions following seasonal freeze-thaw events from arable soils in Northeast China

文献类型： 外文期刊

作者： CHEN Zhe; YANG Shi-qi; ZHANG Ai-ping; JING Xin; SONG Wei-min; MI Zhao-rong; ZHANG Qingwen

关键词： N2O; non-growing season; nitrogen biogeochemical cycling; soil moisture; snow cover; structural equation model

期刊名称： Journal of Integrative Agriculture (JIA)

ISSN： 2095-3119

年卷期： 2018 年 第17卷 卷 第1期 期

页码：

收录情况： JCR（2021版） ; CSCD（2020-2021年度） ; 农林核心（2020版） ; 科技核心（2020版）

摘要： Seasonal soil freeze-thaw events may enhance soil nitrogen transformation and thus stimulate nitrous oxide (N2O) emissions in cold regions. However, the mechanisms of soil N2O emission during the freeze-thaw cycling in the field remain unclear. We evaluated N2O emissions and soil biotic and abiotic factors in maize and paddy fields over 20 months in Northeast China, and the structural equation model (SEM) was used to determine which factors affected N2O production during non-growing season. Our results verified that the seasonal freeze-thaw cycles mitigated the available soil nitrogen and carbon limitation during spring thawing period, but simultaneously increased the gaseous N2O-N losses at the annual time scale under field condition. The N2O-N cumulative losses during the non-growing season amounted to 0.71 and 0.55 kg N ha–1 for the paddy and maize fields, respectively, and contributed to 66 and 18% of the annual total. The highest emission rates (199.2– 257.4 μg m–2 h–1) were observed during soil thawing for both fields, but we did not observe an emission peak during soil freezing in early winter. Although the pulses of N2O emission in spring were short-lived (18 d), it resulted in approximately 80% of the non-growing season N2O-N loss. The N2O burst during the spring thawing was triggered by the combined impact of high soil moisture, flush available nitrogen and carbon, and rapid recovery of microbial biomass. SEM analysis indicated that the soil moisture, available substrates including NH4 + and dissolved organic carbon (DOC), and microbial biomass nitrogen (MBN) explained 32, 36, 16 and 51% of the N2O flux variation, respectively, during the non-growing season. Our results suggested that N2O emission during the spring thawing make a vital contribution of the annual nitrogen budget, and the vast seasonally frozen and snow-covered croplands will have high potential to exert a positive feedback on climate change considering the sensitive response of nitrogen biogeochemical cycling to the freeze-thaw disturbance.

分类号：

  • 相关文献

[1]Nitrous Oxide Emissions Following Seasonal F.reeze-Thaw Events From Arable S oils In Northeast China. Chen, Z, Yang, SQ, Zhang, AP, Jing, X, Song, WM, Mi, ZR, Zhang, QW, Wang, WY, Yang, ZL. 2018

[2]Greenhouse Gas Emissions From The T.ibetan Alpine Grassland: Effects O f Nitrogen And Phosphorus Addition. Gao, Yang,George, Timothy S.,Ren, Fei,Mi, Zhaorong,Mi, Zhaorong,Liang, Yueping,Ren, Fei,Wang, Guangshuai,Wang, Guangshuai,Yang, Xiaoxia,Yang, Xiaoxia,Zhang, Zhenhua. 2018

[3]The Retention Dynamics Of N Input Within The Soil-Microbe-Plant System In A Temperate Grassland. Ma, LN, Gao, XL, Liu, GF, Xu, XF, Lu, XT, Xin, XP, Lu, YX, Zhang, CX, Zhang, LH, Wang, RZ. 2020

[4]Mitigating nitrous oxide emissions from a maize-cropping black soil in northeast China by a combination of reducing chemical N fertilizer application and applying manure in autumn. Guo, Yanling,Chen, Guanxiong,Kou, Yongping,Xu, Hui,Guo, Yanling,Kou, Yongping,Luo, Liangguo. 2013

[5]Estimates of N2O Emissions and Mitigation Potential from a Spring Maize Field Based on DNDC Model. Li Hu,Qiu Jian-Jun,Wang Li-gang,Xu Ming-yi,Liu Zhi-qiang,Wang Wei. 2012

[6]Measurements of N2O emissions from different vegetable fields on the North China Plain. Diao, Tiantian,Guo, Liping,Yan, Hongliang,Lin, Miao,Zhang, He,Lin, Erda,Xie, Liyong,Lin, Miao,Zhang, He,Lin, Jia. 2013

[7]Enhancement of farmland greenhouse gas emissions from leakage of stored CO2: Simulation of leaked CO2 from CCS. Zhang, Xueyan,Ma, Xin,Li, Yue,Ma, Xin,Li, Yue,Wu, Yang.

[8]Fate of N-15 derived from composts and urea in soils under different long-term N management in pot experiments. Luo, LG,Kondo, M,Itoh, S.

[9]Impacts of cropping practices on yield-scaled greenhouse gas emissions from rice fields in China: A meta-analysis. Feng, Jinfei,Chen, Changqing,Zhang, Yi,Zhang, Weijian,Feng, Jinfei,Song, Zhenwei,Deng, Aixing,Zheng, Chengyan,Zhang, Weijian. 2013

[10]Impact Of Nitrogen Fertilizer, Greenhouse, A.nd Crop Species On Y ield-Scaled Nitrous Oxide Emission From Vegetable Crops: A Meta-Analysis. Yang, T, Li, FB, Zhou, XY, Xu, CC, Feng, JF, Fang, FP. 2019

[11]Optimized Fertigation Maintains High Yield A.nd Mitigates N2O And N o Emissions In An Intensified Wheat-Maize Cropping System. Zhang, X, Meng, FQ, Li, H, Wang, LG, Wu, SX, Xiao, GM, Wu, WL. 2019

[12]Integrative impacts of soil tillage on crop yield, N use efficiency and greenhouse gas emission in wheat-corn cropping system. H. Latifmanesh,C.Y. Zheng,Z.W. Song,A.X. Deng,J.L. Huang,L. Li,Z.J. Chen,Y.T. Zheng, B.M. Zhang,W.J. Zhang. 2016

[13]Mechanism of biochar on nitrification and denitrification to N2O emissions based on isotope characteristic values. Zhanming Tang,Xingren Liu,Guichun Li,Xiaowan Liu. 2022

[14]The influence of soil acidification on N2O emissions derived from fungal and bacterial denitrification using dual isotopocule mapping and acetylene inhibition. Qian Zheng,Junjun Ding,Wei Lin,Zhipeng Yao,Qiaozhen Li,Chunying Xu,Shan Zhuang,Xinyue Kou,Yuzhong Li. 2022

[15]Does replacing chemical fertilizer with ryegrass (Lolium multiflorum Lam.) mitigate CH4 and N2O emissions and reduce global warming potential from paddy soil?. Yang, Wei,Yao, Lai,Ji, Xueru,Zhu, Mengzhen,Li, Chengwei,Li, Shaoqiu,Wang, Bin,Liu, Zhangyong,Zhu, Bo. 2022

[16]The application of N-butyl Phosphorothioate Triamine and Dicyandiamide changes the soil N2O production path. Yan, Qing,Liang, Junfeng,Zhao, Di,Zhang, Lisheng,Zhang, Keqiang,Wang, Feng. 2022

[17]Replacing urea-N with Chinese milk vetch (Astragalus sinicus L.) mitigates CH4 and N2O emissions in rice paddy. Wei Yang,Lai Yao,Mengzhen Zhu,Chengwei Li,Shaoqiu Li,Bin Wang,Paul Dijkstra,Zhangyong Liu,Bo Zhu. 2022

[18]Effects of Water-Saving Irrigation on Direct-Seeding Rice Yield and Greenhouse Gas Emissions in North China. Xiaoning Hang,Frederick Danso,Jia Luo,Dunxiu Liao,Jian Zhang,Jun Zhang. 2022

[19]Legacy effect of long-term rice–crab co-culture on N2O emissions in paddy soils. Li W.,Zhang Y.,Wang H.,Fan B.,Bashir M.A.,Jin K.,Liu H.. 2024

[20]Global comprehensive evaluation shows that green manure enhances crop productivity while mitigating gaseous nitrogen losses. Hua Huang,Zihui Zhang,Qi Wu,Zeyu Liu,Qinghe Wang,Yuhang Ying,Zechao Zhang,Huijuan Zhang,Yifan Wang,Guangxin Zhang,Kemoh Bangura,Enke Liu,Jianfu Xue,Zhiqiang Gao,Tie Cai,Peng Zhang,Peng Wu. 2025

作者其他论文 更多>>