数字农科院2.0

Cultivating crop reduces microbial necromass carbon accumulation but contributes fungal derived- soil organic carbon formation in fertilized soils with straw addition

文献类型： 外文期刊

作者： Mei, Xiuwen;Zhu, Tengxiao;Li, Yuping;Li, Shuangyi;Sun, Liangjie;An, Tingting;Wang, Jingkuan

作者机构：

关键词： Soil organic carbon;Microbial necromass carbon;Straw returning;Cultivating crop;Fertilization

期刊名称： PLANT AND SOIL

ISSN： 0032-079X

年卷期： 2025 年

页码：

收录情况： SCIE（2025版）

摘要： Background and Aims Microbial necromass carbon (C) largely contributes to soil organic carbon (SOC) sequestration. Soil microorganisms drive the transformation process of straw C. Crop growth creates an intricate microenvironment for soil microorganisms. However, whether and how cultivating crop affects microbial derived- SOC sequestration in soil profile remains unclear. This research aimed to clarify the effects of cultivating crop on total microbial necromass C (C-M) accumulation, and its contribution to SOC formation, and to explore the factors driving C-M sequestration in soils with straw addition. Methods We conducted an in-situ field experiments with only C-13-labeled straw addition (S) and its combined with cultivating crop (SR) in soils with long-term chemical fertilizers application (NP) or without fertilization (CK). Results On the 510th day, straw-derived C-M averagely was 32.1% higher (P < 0.05) in SR versus S treatments and its contribution to newly formed SOC averagely was 13.6% higher (P < 0.05) in NP versus CK treatments. The fungal necromass C (C-F) content at varied soil depths were 15.3%-35.1% lower in NP + SR versus NP + S treatments (P < 0.05) on the 50th day. SR increased the C-F content at 20-40 and 40-50 cm soil depths by 23.9% and 49.2%, respectively, relative to S under CK treatments (P < 0.05), while the contrast result was found under NP treatments on the 510th day. Cultivating crop directly and negatively affected the C-M accumulation by regulating microbial biomass and soil properties, which induced the microbial contribution to SOC increased with soil depths during the whole stage. Conclusion The co-existence of cultivating crop with straw addition promoted SOC renewal via newly formed fungal necromass in fertilized soils.

分类号：

  • 相关文献

[1]Optimal Straw Return Rate to Ensure Synergistic Improvement of Maize Productivity and Soil Nutrients: A Case Study in Semiarid Region. Zhang, Weijun,He, Jinshang,Zhang, Mengjie,Nugmanov, Almabek,Liu, Enke,Ren, Xiaolong,Jia, Zhikuan,Siddique, Kadambot H. M.,Wang, Yuhao,Zhang, Peng. 2025

[2]Appropriate Amount Application of Manure is Conducive to Improve Soil Aggregate Stability in Saline-Alkaline Soil: Analyzed from Soil Organic Carbon Mediated by Microbial Necromass Carbon. Gao, Chunwei,Zhang, Shirong,Chen, Mengmeng,Cheng, Lingbao,Zhang, Xiaoguang,Ding, Xiaodong. 2024

[3]Bacterial necromass as the main source of organic matter in saline soils. Jiashen Song,Hongyuan Zhang,Bahar Razavi,Fangdi Chang,Ru Yu,Xia Zhang,Jing Wang,Jie Zhou,Yuyi Li,Yakov Kuzyakov. 2024

[4]Global Synthesis of Fertilisation-Induced Changes in the Microbial Entombing Effect. Fu, Haoran,Chen, Hong,Ma, Zhengbo,Liang, Guopeng,Tian, Jing,Wanek, Wolfgang,Chadwick, David R.,Jones, Davey L.,Wu, Lianghuan,Ma, Qingxu. 2025

[5]SOC sequestration affected by fertilization in rice-based cropping systems over the last four decades. Shuhui Wang,Nan Sun,Shuo Liang,Shuxiang Zhang,Jeroen Meersmans,Gilles Colinet,Minggang Xu,Lianhai Wu. 2023

[6]磷肥对苜蓿根系发育的影响. 韩雪松. 2002

[7]Treated domestic sewage irrigation significantly decreased the CH4, N2O and NH3 emissions from paddy fields with straw incorporation. Wang, Shaohua,Xu, Shanshan,Hou, Pengfu,Xue, Lihong,Yang, Linzhang.

[8]Effects of Straw Returning on Soil Enzyme Activity and Stability of Soil Aggregates in Flue-cured Tobacco Field. Zhang, Ji-Guang,Bo, Guo-Dong,Zhang, Zhong-Feng,Shen, Guo-Ming,Gao, Lin,Yu, Hui-Yong,Xu, Jia-Lai,Wang, Yi. 2015

[9]Annual burying of straw after pelletizing: A novel and feasible way to improve soil fertility and productivity in Northeast China. Xiquan Wang,Guoyi Lv,Yan Zhang,Yang Yu,Xinbo Wang,Leanne Peixoto,Chunrong Qian,Huancheng Pang. 2023

[10]The Tradeoff between Maintaining Maize (Zea mays L.) Productivity and Improving Soil Quality under Conservation Tillage Practice in Semi-Arid Region of Northeast China. Nana Chen,Xin Zhao,Shuxian Dou,Aixing Deng,Chengyan Zheng,Tiehua Cao,Zhenwei Song,Weijian Zhang. 2023

[11]Long-Term Agronomic Practices in Reducing Nitrogen and Phosphorus Loss from Intensive Croplands. Ma, Zhongwen,Luo, Mei,Wang, Qiang,Li, Chen,Guo, Long,Wu, Sheng,Kazery, Joseph,Yan, Yonghua,Zhai, Limei,Liu, Hongbin,Ma, Youhua,Han, Fengxiang X.. 2022

[12]Annual burying of pelletized straw benefits grain amino acid by increasing soil mineral elements: A case study in Northeast China. Peixin Wang,Xiquan Wang,Rui Zong,Xinbo Wang,Haiping Ni,Lumin Liu,Yan Yang,Yubo Hao,Yiteng Zhang,Huancheng Pang,Chunrong Qian. 2024

[13]Comprehensive effects of integrated management on reducing nitrogen and phosphorus loss under legume-rice rotations. Shaopeng Wang,Shufang Guo,Limei Zhai,Lingling Hua,Benyamin Khoshnevisan,Hongyuan Wang,Hongbin Liu. 2022

[14]Evaluate the impacts of different straw returning rates on soil quality and field environmental sustainability of film mulching or non-mulching farmland in semiarid region. Yuhao Wang,Yanbo Ji,Jing Ma,Moskvicheva Elena,Ansabayeva Assiya,Ruixia Ding,Zhikuan Jia,Kadambot H.M. Siddique,Enke Liu,Jinshang He,Weijun Zhang,Peng Zhang. 2025

[15]Impact of straw return and decomposition agent on Tibetan barley yield and soil microbial community in Xizang, China. Quanping Sun,Min Tian,Xianglin Dai,Shangwen Wang,Jiwei Qin,Jun Pen. 2025

[16]Long-term maize-soybean rotation in Northeast China: impact on soil organic matter stability and microbial decomposition. Cui, Jiwen,Yang, Binggeng,Xu, Xinpeng,Ai, Chao,Zhou, Wei. 2024

[17]Stimulatory effects of nutrient addition on microbial necromass C formation depend on soil stoichiometry. Yihui Chen,Shutang Liu,Yaping Huang,Qiong Xiao,Xiaorong Zhao,Lei Wu,Wenju Zhang. 2025

[18]Palygorskite enhances microbial necromass carbon accumulation and drives heavy metal immobilization during chicken manure composting. Shihang Wu,Tao Sun,Chao Wang,Renfu Zhang,Luqi Mi,Hao Yang,Xiaojia Zhou,Kexin Chen,Yuebing Sun. 2025

[19]Substrate stoichiometry and microbial metabolic preference drive the divergent accumulation of plant and microbial necromass carbon in cropland soils: evidence from a short-term experiment. Hongliang Wu,Luming Wang,Xiuping Liu,Wenyan Wang,Changai Lu,Wenxu Dong. 2025

[20]Green manure roots return drives saline-alkali soil organic carbon accumulation via microbial necromass formation. Fangdi Chang,Hongyuan Zhang,Peiyi Zhao,Na Zhao,Jiashen Song,Ru Yu,Jing Wang,Xiquan Wang,Dongxun Han,Xiaodong Liu,Jie Zhou,Yuyi Li. 2025

作者其他论文 更多>>