数字农科院2.0

Effects of Long-Term Organic Substitution on Soil Nitrous Oxide Emissions in a Tea (Camellia sinensis L.) Plantation in China

文献类型： 外文期刊

作者： Zhidan Wu;Wei Hua;Kang Ni;Xiangde Yang;Fuying Jiang

作者机构：

关键词： influencing factors;nitrous oxide emission;organic substitution;tea plantation;tea yield

期刊名称： Agronomy

ISSN： 2073-4395

年卷期： 2025 年 15 卷 2 期

页码：

收录情况： SCIE（2025版）

摘要： Nitrous oxide (N2O) is a major greenhouse gas (GHG) responsible for global warming. Improper fertilization in agricultural fields, particularly excessive nitrogen (N) application, accelerates soil N2O emissions. Though partial substitution with organic fertilizer has been implemented to mitigate these emissions, the effect on perennial systems, such as tea plantations, remains largely unexplored. Therefore, the present study monitored soil N2O emissions for a year in a tea plantation in South China under the following treatments: no N fertilizer (control, CK), chemical fertilizer alone (CF), replacing 40% of chemical fertilizer with organic fertilizer (CF + OF), and organic fertilizer alone (OF). Our results showed that the annual cumulative N2O emissions from the plantation soil ranged from 1.03 to 3.43 kg N2O-N ha−1. The cumulative N2O emissions, the yield-scaled N2O emissions (YSNE), and the N2O-N emission factor (EF) from the soil were the highest under the CF + OF treatment but the lowest under the OF treatment. Further analysis revealed that fertilization, mainly chemical fertilization, increased the soil ammonium (NH4+-N) and nitrate (NO3−-N) levels by 182–387% and 195–258%, respectively, and tea yields by 120–170%. However, tea yield decreased gradually with increasing organic substitution. These results prove that complete organic substitution reduces soil N2O emissions and tea yield and suggest adopting an appropriate substitution rate for optimal effect. Further random forest (RF) modeling identified water-filled pore space (WFPS; 20.27% of total variation), soil temperature (Tsoil; 19.29%), and NH4+-N (18.27%) as the key factors significantly contributing to the changes in soil N2O flux. These findings provide a theoretical foundation for optimizing fertilization regimes for sustainable tea production and soil N2O mitigation.

分类号：

  • 相关文献

[1]Partially replacing chemical fertilizer with manure improves soil quality and ecosystem multifunctionality in a tea plantation. Liu, Boheng,Zhang, Yongli,Yi, Xiaoyun,Zheng, Haitao,Ni, Kang,Ma, Qingxu,Cai, Yanjiang,Ma, Lifeng,Shi, Yuanzhi,Yang, Xiangde,Ruan, Jianyun. 2024

[2]Nitrous Oxide Emissions In Chinese V.egetable Systems: A Meta-Analysis. Chen, Xinping,Chen, Xinping,Gao, Xiaopeng,Guan, Xilin,Shi, Xiaojun,Shi, Xiaojun,Zhang, Wushuai,Zhang, Yueqiang,Zhang, Yueqiang,Zou, Chunqin,Wang, Xiaozhong,Wang, Xiaozhong,Wang, Xiaozhong. 2018

[3]Global evaluation of inhibitor impacts on ammonia and nitrous oxide emissions from agricultural soils: A meta-analysis. Fan, Daijia,He, Wentian,Smith, Ward N.,Drury, Craig F.,Jiang, Rong,Grant, Brian B.,Shi, Yaoyao,Song, Daping,Chen, Yanhua,Wang, Xuexia,He, Ping,Zou, Guoyuan. 2022

[4]The Tea Weevil, Myllocerinus aurolineatus, is Attracted to Volatiles Induced by Conspecifics. Sun, Xiao-Ling,Wang, Guo-Chang,Jin, Shan,Gao, Yu,Chen, Zong-Mao,Wang, Guo-Chang,Cai, Xiao-Ming.

[5]Impact of N application rate on tea (Camellia sinensis) growth and soil bacterial and fungi communities. Tang, Sheng,Zhou, Jingjie,Pan, Wankun,Tang, Rui,Ma, Qingxu,Xu, Meng,Qi, Tong,Ma, Zhengbo,Fu, Haoran,Wu, Lianghuan. 2022

[6]Machine learning unveils the role of biochar application in enhancing tea yield by mitigating soil acidification in tea plantations. Rongxiu Yin,Xin Li,Yating Ning,Qiang Hu,Yihu Mao,Xiaoqin Zhang,Xinzhong Zhang. 2025

[7]Organic amendment regulates soil microbial biomass and activity in wheat-maize and wheat-soybean rotation systems. Dali Song,Xianglin Dai,Tengfei Guo,Jiwen Cui,Wei Zhou,Shaomin Huang,Jianbo Shen,Guoqing Liang,Ping He,Xiubin Wang,Shuiqing Zhang. 2022

[8]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

[9]Estimating thresholds of nitrogen, phosphorus and potassium fertilizer rates for rice cropping systems in China. Yingxia Liu,Wencheng Ding,Ping He,Xinpeng Xu,Wei Zhou. 2024

[10]Grain yield and water productivity of winter wheat controlled by irrigation regime and manure substitution in the North China Plain. Zhenxing Yan,Wenying Zhang,Xiuwei Liu,Qingsuo Wang,Binhui Liu,Xurong Mei. 2024

[11]Optimization of nutrient management improves productivity, quality and sustainability of albino tea cultivar Baiye-1. Yun Zhu,Lifeng Ma,Saipan Geng,Jianyun Ruan. 2024

[12]Medium molecular weight carbon fractions of DOM: Driving soil microbial community differentiation and soil organic carbon sequestration. Jinkang Yang,Yanan Ren,Shaomin Huang,Liping Weng,Yongtao Li,Hongen Liu,Peng Zhao,Long Wang,Xiaolei Jie. 2025

[13]Agricultural practices influence phosphorus transport and ecosystem health in rice-paddy systems: Insights from HYDRUS-1D simulations. Shuoshuo Liang,Qingnan Chu,Ali Ashrafi,Zheng Zhao,Xiangyu Liu,Shuang Liu,Bei Yang,Detian Li,Ping He,Linkui Cao,Zhimin Sha,Chengrong Chen. 2025

[14]Improvement in soil organic carbon turnover and microbial community niche differentiation with the addition of commercial organic fertilizers in wheat-green manure systems. Cheng, Liyang,He, Hao,Min, Tao,Luo, Tong,Li, Junhua. 2025

[15]Development of synthetic volatile attractant for male Ectropis obliqua moths. Sun Xiao-ling,Li Xi-wang,Xin Zhao-jun,Han Juan-juan,Ran Wei,Lei Shu,Sun Xiao-ling,Li Xi-wang,Xin Zhao-jun,Han Juan-juan,Ran Wei,Lei Shu. 2016

[16]Non-host plant essential oil volatiles with potential for a "push-pull' strategy to control the tea green leafhopper, Empoasca vitis. Zhang, Zhengqun,Chen, Zongmao,Zhang, Zhengqun.

[17]Occurrence, sources, and risk assessments of phthalic acid esters in tea plantations in China. Yutong Li,Jun Wang,Hongcheng Bai,Kang Ni,Kun Liu,Peili Lu. 2022

[18]Microbial communities overwhelm environmental controls in explaining nitrous oxide emission in acidic soils. Shengwen Xu,Yongxiang Yu,Haoxin Fan,Nataliya Bilyera,Xiangtian Meng,Jiantao Xue,Zhong Lu,Zhihan Yang,Stephen J. Chapman,Fuyun Gao,Wenyan Han,Yaying Li,Ningguo Zheng,Huaiying Yao,Yakov Kuzyakov. 2024

[19]Nanoparticles of Zinc Oxides Mitigated N2O Emissions in Tea Plantation Soil. Jing Wang,Linfang Guo,Fengmin Yang,Jian Xiang,Lizhi Long,Kang Ni. 2024

[20]Changes in soil organic carbon stocks and mineralization following the replacement of secondary evergreen broadleaf forests with tea (Camellia sinensis L.) plantations. Shaobo Zhang,Junyan Lv,Yongfu Li,Lan Zhang,Qiang Hu,Zhenzheng Li,Xing Yang,Jiao Li,Tieniu Wu,Yihu Mao,Liping Zhang,Wenyan Han,Peng Yan,Xin Li. 2024

作者其他论文 更多>>